minio/cmd/data-usage-cache_gen.go

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package cmd
// Code generated by github.com/tinylib/msgp DO NOT EDIT.
import (
"github.com/tinylib/msgp/msgp"
)
// DecodeMsg implements msgp.Decodable
func (z *allTierStats) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "ts":
var zb0002 uint32
zb0002, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Tiers")
return
}
if z.Tiers == nil {
z.Tiers = make(map[string]tierStats, zb0002)
} else if len(z.Tiers) > 0 {
for key := range z.Tiers {
delete(z.Tiers, key)
}
}
for zb0002 > 0 {
zb0002--
var za0001 string
var za0002 tierStats
za0001, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Tiers")
return
}
var zb0003 uint32
zb0003, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001)
return
}
for zb0003 > 0 {
zb0003--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001)
return
}
switch msgp.UnsafeString(field) {
case "ts":
za0002.TotalSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001, "TotalSize")
return
}
case "nv":
za0002.NumVersions, err = dc.ReadInt()
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001, "NumVersions")
return
}
case "no":
za0002.NumObjects, err = dc.ReadInt()
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001, "NumObjects")
return
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001)
return
}
}
}
z.Tiers[za0001] = za0002
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
// EncodeMsg implements msgp.Encodable
func (z *allTierStats) EncodeMsg(en *msgp.Writer) (err error) {
// map header, size 1
// write "ts"
err = en.Append(0x81, 0xa2, 0x74, 0x73)
if err != nil {
return
}
err = en.WriteMapHeader(uint32(len(z.Tiers)))
if err != nil {
err = msgp.WrapError(err, "Tiers")
return
}
for za0001, za0002 := range z.Tiers {
err = en.WriteString(za0001)
if err != nil {
err = msgp.WrapError(err, "Tiers")
return
}
// map header, size 3
// write "ts"
err = en.Append(0x83, 0xa2, 0x74, 0x73)
if err != nil {
return
}
err = en.WriteUint64(za0002.TotalSize)
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001, "TotalSize")
return
}
// write "nv"
err = en.Append(0xa2, 0x6e, 0x76)
if err != nil {
return
}
err = en.WriteInt(za0002.NumVersions)
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001, "NumVersions")
return
}
// write "no"
err = en.Append(0xa2, 0x6e, 0x6f)
if err != nil {
return
}
err = en.WriteInt(za0002.NumObjects)
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001, "NumObjects")
return
}
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z *allTierStats) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
// map header, size 1
// string "ts"
o = append(o, 0x81, 0xa2, 0x74, 0x73)
o = msgp.AppendMapHeader(o, uint32(len(z.Tiers)))
for za0001, za0002 := range z.Tiers {
o = msgp.AppendString(o, za0001)
// map header, size 3
// string "ts"
o = append(o, 0x83, 0xa2, 0x74, 0x73)
o = msgp.AppendUint64(o, za0002.TotalSize)
// string "nv"
o = append(o, 0xa2, 0x6e, 0x76)
o = msgp.AppendInt(o, za0002.NumVersions)
// string "no"
o = append(o, 0xa2, 0x6e, 0x6f)
o = msgp.AppendInt(o, za0002.NumObjects)
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *allTierStats) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "ts":
var zb0002 uint32
zb0002, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Tiers")
return
}
if z.Tiers == nil {
z.Tiers = make(map[string]tierStats, zb0002)
} else if len(z.Tiers) > 0 {
for key := range z.Tiers {
delete(z.Tiers, key)
}
}
for zb0002 > 0 {
var za0001 string
var za0002 tierStats
zb0002--
za0001, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Tiers")
return
}
var zb0003 uint32
zb0003, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001)
return
}
for zb0003 > 0 {
zb0003--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001)
return
}
switch msgp.UnsafeString(field) {
case "ts":
za0002.TotalSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001, "TotalSize")
return
}
case "nv":
za0002.NumVersions, bts, err = msgp.ReadIntBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001, "NumVersions")
return
}
case "no":
za0002.NumObjects, bts, err = msgp.ReadIntBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001, "NumObjects")
return
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err, "Tiers", za0001)
return
}
}
}
z.Tiers[za0001] = za0002
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *allTierStats) Msgsize() (s int) {
s = 1 + 3 + msgp.MapHeaderSize
if z.Tiers != nil {
for za0001, za0002 := range z.Tiers {
_ = za0002
s += msgp.StringPrefixSize + len(za0001) + 1 + 3 + msgp.Uint64Size + 3 + msgp.IntSize + 3 + msgp.IntSize
}
}
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageCache) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Info":
err = z.Info.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Cache":
var zb0002 uint32
zb0002, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntry, zb0002)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0002 > 0 {
zb0002--
var za0001 string
var za0002 dataUsageEntry
za0001, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
err = za0002.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Cache", za0001)
return
}
z.Cache[za0001] = za0002
}
case "Disks":
var zb0003 uint32
zb0003, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0003) {
z.Disks = (z.Disks)[:zb0003]
} else {
z.Disks = make([]string, zb0003)
}
for za0003 := range z.Disks {
z.Disks[za0003], err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Disks", za0003)
return
}
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
// EncodeMsg implements msgp.Encodable
func (z *dataUsageCache) EncodeMsg(en *msgp.Writer) (err error) {
// map header, size 3
// write "Info"
err = en.Append(0x83, 0xa4, 0x49, 0x6e, 0x66, 0x6f)
if err != nil {
return
}
err = z.Info.EncodeMsg(en)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
// write "Cache"
err = en.Append(0xa5, 0x43, 0x61, 0x63, 0x68, 0x65)
if err != nil {
return
}
err = en.WriteMapHeader(uint32(len(z.Cache)))
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
for za0001, za0002 := range z.Cache {
err = en.WriteString(za0001)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
err = za0002.EncodeMsg(en)
if err != nil {
err = msgp.WrapError(err, "Cache", za0001)
return
}
}
// write "Disks"
err = en.Append(0xa5, 0x44, 0x69, 0x73, 0x6b, 0x73)
if err != nil {
return
}
err = en.WriteArrayHeader(uint32(len(z.Disks)))
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
for za0003 := range z.Disks {
err = en.WriteString(z.Disks[za0003])
if err != nil {
err = msgp.WrapError(err, "Disks", za0003)
return
}
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z *dataUsageCache) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
// map header, size 3
// string "Info"
o = append(o, 0x83, 0xa4, 0x49, 0x6e, 0x66, 0x6f)
o, err = z.Info.MarshalMsg(o)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
// string "Cache"
o = append(o, 0xa5, 0x43, 0x61, 0x63, 0x68, 0x65)
o = msgp.AppendMapHeader(o, uint32(len(z.Cache)))
for za0001, za0002 := range z.Cache {
o = msgp.AppendString(o, za0001)
o, err = za0002.MarshalMsg(o)
if err != nil {
err = msgp.WrapError(err, "Cache", za0001)
return
}
}
// string "Disks"
o = append(o, 0xa5, 0x44, 0x69, 0x73, 0x6b, 0x73)
o = msgp.AppendArrayHeader(o, uint32(len(z.Disks)))
for za0003 := range z.Disks {
o = msgp.AppendString(o, z.Disks[za0003])
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageCache) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Info":
bts, err = z.Info.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Cache":
var zb0002 uint32
zb0002, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntry, zb0002)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0002 > 0 {
var za0001 string
var za0002 dataUsageEntry
zb0002--
za0001, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
bts, err = za0002.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Cache", za0001)
return
}
z.Cache[za0001] = za0002
}
case "Disks":
var zb0003 uint32
zb0003, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0003) {
z.Disks = (z.Disks)[:zb0003]
} else {
z.Disks = make([]string, zb0003)
}
for za0003 := range z.Disks {
z.Disks[za0003], bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks", za0003)
return
}
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageCache) Msgsize() (s int) {
s = 1 + 5 + z.Info.Msgsize() + 6 + msgp.MapHeaderSize
if z.Cache != nil {
for za0001, za0002 := range z.Cache {
_ = za0002
s += msgp.StringPrefixSize + len(za0001) + za0002.Msgsize()
}
}
s += 6 + msgp.ArrayHeaderSize
for za0003 := range z.Disks {
s += msgp.StringPrefixSize + len(z.Disks[za0003])
}
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageCacheInfo) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Name":
z.Name, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Name")
return
}
case "NextCycle":
z.NextCycle, err = dc.ReadUint32()
if err != nil {
err = msgp.WrapError(err, "NextCycle")
return
}
case "LastUpdate":
z.LastUpdate, err = dc.ReadTime()
if err != nil {
err = msgp.WrapError(err, "LastUpdate")
return
}
case "SkipHealing":
z.SkipHealing, err = dc.ReadBool()
if err != nil {
err = msgp.WrapError(err, "SkipHealing")
return
}
case "BloomFilter":
z.BloomFilter, err = dc.ReadBytes(z.BloomFilter)
if err != nil {
err = msgp.WrapError(err, "BloomFilter")
return
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
// EncodeMsg implements msgp.Encodable
func (z *dataUsageCacheInfo) EncodeMsg(en *msgp.Writer) (err error) {
// omitempty: check for empty values
zb0001Len := uint32(5)
var zb0001Mask uint8 /* 5 bits */
if z.BloomFilter == nil {
zb0001Len--
zb0001Mask |= 0x10
}
// variable map header, size zb0001Len
err = en.Append(0x80 | uint8(zb0001Len))
if err != nil {
return
}
if zb0001Len == 0 {
return
}
// write "Name"
err = en.Append(0xa4, 0x4e, 0x61, 0x6d, 0x65)
if err != nil {
return
}
err = en.WriteString(z.Name)
if err != nil {
err = msgp.WrapError(err, "Name")
return
}
// write "NextCycle"
err = en.Append(0xa9, 0x4e, 0x65, 0x78, 0x74, 0x43, 0x79, 0x63, 0x6c, 0x65)
if err != nil {
return
}
err = en.WriteUint32(z.NextCycle)
if err != nil {
err = msgp.WrapError(err, "NextCycle")
return
}
// write "LastUpdate"
err = en.Append(0xaa, 0x4c, 0x61, 0x73, 0x74, 0x55, 0x70, 0x64, 0x61, 0x74, 0x65)
if err != nil {
return
}
err = en.WriteTime(z.LastUpdate)
if err != nil {
err = msgp.WrapError(err, "LastUpdate")
return
}
// write "SkipHealing"
err = en.Append(0xab, 0x53, 0x6b, 0x69, 0x70, 0x48, 0x65, 0x61, 0x6c, 0x69, 0x6e, 0x67)
if err != nil {
return
}
err = en.WriteBool(z.SkipHealing)
if err != nil {
err = msgp.WrapError(err, "SkipHealing")
return
}
if (zb0001Mask & 0x10) == 0 { // if not empty
// write "BloomFilter"
err = en.Append(0xab, 0x42, 0x6c, 0x6f, 0x6f, 0x6d, 0x46, 0x69, 0x6c, 0x74, 0x65, 0x72)
if err != nil {
return
}
err = en.WriteBytes(z.BloomFilter)
if err != nil {
err = msgp.WrapError(err, "BloomFilter")
return
}
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z *dataUsageCacheInfo) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
// omitempty: check for empty values
zb0001Len := uint32(5)
var zb0001Mask uint8 /* 5 bits */
if z.BloomFilter == nil {
zb0001Len--
zb0001Mask |= 0x10
}
// variable map header, size zb0001Len
o = append(o, 0x80|uint8(zb0001Len))
if zb0001Len == 0 {
return
}
// string "Name"
o = append(o, 0xa4, 0x4e, 0x61, 0x6d, 0x65)
o = msgp.AppendString(o, z.Name)
// string "NextCycle"
o = append(o, 0xa9, 0x4e, 0x65, 0x78, 0x74, 0x43, 0x79, 0x63, 0x6c, 0x65)
o = msgp.AppendUint32(o, z.NextCycle)
// string "LastUpdate"
o = append(o, 0xaa, 0x4c, 0x61, 0x73, 0x74, 0x55, 0x70, 0x64, 0x61, 0x74, 0x65)
o = msgp.AppendTime(o, z.LastUpdate)
// string "SkipHealing"
o = append(o, 0xab, 0x53, 0x6b, 0x69, 0x70, 0x48, 0x65, 0x61, 0x6c, 0x69, 0x6e, 0x67)
o = msgp.AppendBool(o, z.SkipHealing)
if (zb0001Mask & 0x10) == 0 { // if not empty
// string "BloomFilter"
o = append(o, 0xab, 0x42, 0x6c, 0x6f, 0x6f, 0x6d, 0x46, 0x69, 0x6c, 0x74, 0x65, 0x72)
o = msgp.AppendBytes(o, z.BloomFilter)
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageCacheInfo) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Name":
z.Name, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Name")
return
}
case "NextCycle":
z.NextCycle, bts, err = msgp.ReadUint32Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "NextCycle")
return
}
case "LastUpdate":
z.LastUpdate, bts, err = msgp.ReadTimeBytes(bts)
if err != nil {
err = msgp.WrapError(err, "LastUpdate")
return
}
case "SkipHealing":
z.SkipHealing, bts, err = msgp.ReadBoolBytes(bts)
if err != nil {
err = msgp.WrapError(err, "SkipHealing")
return
}
case "BloomFilter":
z.BloomFilter, bts, err = msgp.ReadBytesBytes(bts, z.BloomFilter)
if err != nil {
err = msgp.WrapError(err, "BloomFilter")
return
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageCacheInfo) Msgsize() (s int) {
s = 1 + 5 + msgp.StringPrefixSize + len(z.Name) + 10 + msgp.Uint32Size + 11 + msgp.TimeSize + 12 + msgp.BoolSize + 12 + msgp.BytesPrefixSize + len(z.BloomFilter)
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageCacheV2) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Info":
err = z.Info.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntryV2, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
zb0003--
var za0002 string
var za0003 dataUsageEntryV2
za0002, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
err = za0003.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageCacheV2) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Info":
bts, err = z.Info.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntryV2, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
var za0002 string
var za0003 dataUsageEntryV2
zb0003--
za0002, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
bts, err = za0003.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageCacheV2) Msgsize() (s int) {
s = 1 + 5 + z.Info.Msgsize() + 6 + msgp.ArrayHeaderSize
for za0001 := range z.Disks {
s += msgp.StringPrefixSize + len(z.Disks[za0001])
}
s += 6 + msgp.MapHeaderSize
if z.Cache != nil {
for za0002, za0003 := range z.Cache {
_ = za0003
s += msgp.StringPrefixSize + len(za0002) + za0003.Msgsize()
}
}
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageCacheV3) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Info":
err = z.Info.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntryV3, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
zb0003--
var za0002 string
var za0003 dataUsageEntryV3
za0002, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
err = za0003.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageCacheV3) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = msgp.WrapError(err)
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = msgp.WrapError(err)
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
switch msgp.UnsafeString(field) {
case "Info":
bts, err = z.Info.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntryV3, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
var za0002 string
var za0003 dataUsageEntryV3
zb0003--
za0002, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
bts, err = za0003.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageCacheV3) Msgsize() (s int) {
s = 1 + 5 + z.Info.Msgsize() + 6 + msgp.ArrayHeaderSize
for za0001 := range z.Disks {
s += msgp.StringPrefixSize + len(z.Disks[za0001])
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
s += 6 + msgp.MapHeaderSize
if z.Cache != nil {
for za0002, za0003 := range z.Cache {
_ = za0003
s += msgp.StringPrefixSize + len(za0002) + za0003.Msgsize()
}
}
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
// DecodeMsg implements msgp.Decodable
func (z *dataUsageCacheV4) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = msgp.WrapError(err)
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = msgp.WrapError(err)
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
switch msgp.UnsafeString(field) {
case "Info":
err = z.Info.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntryV4, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
zb0003--
var za0002 string
var za0003 dataUsageEntryV4
za0002, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
err = za0003.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
func (z *dataUsageCacheV4) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Info":
bts, err = z.Info.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
z.Cache = make(map[string]dataUsageEntryV4, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
var za0002 string
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
var za0003 dataUsageEntryV4
zb0003--
za0002, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
bts, err = za0003.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
func (z *dataUsageCacheV4) Msgsize() (s int) {
s = 1 + 5 + z.Info.Msgsize() + 6 + msgp.ArrayHeaderSize
for za0001 := range z.Disks {
s += msgp.StringPrefixSize + len(z.Disks[za0001])
}
s += 6 + msgp.MapHeaderSize
if z.Cache != nil {
for za0002, za0003 := range z.Cache {
_ = za0003
s += msgp.StringPrefixSize + len(za0002) + za0003.Msgsize()
}
}
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageCacheV5) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Info":
err = z.Info.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntryV5, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
zb0003--
var za0002 string
var za0003 dataUsageEntryV5
za0002, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
err = za0003.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageCacheV5) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Info":
bts, err = z.Info.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntryV5, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
var za0002 string
var za0003 dataUsageEntryV5
zb0003--
za0002, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
bts, err = za0003.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageCacheV5) Msgsize() (s int) {
s = 1 + 5 + z.Info.Msgsize() + 6 + msgp.ArrayHeaderSize
for za0001 := range z.Disks {
s += msgp.StringPrefixSize + len(z.Disks[za0001])
}
s += 6 + msgp.MapHeaderSize
if z.Cache != nil {
for za0002, za0003 := range z.Cache {
_ = za0003
s += msgp.StringPrefixSize + len(za0002) + za0003.Msgsize()
}
}
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageCacheV6) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "Info":
err = z.Info.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntryV6, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
zb0003--
var za0002 string
var za0003 dataUsageEntryV6
za0002, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
err = za0003.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
}
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageCacheV6) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
if err != nil {
err = msgp.WrapError(err)
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
return
}
switch msgp.UnsafeString(field) {
case "Info":
bts, err = z.Info.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Info")
return
}
case "Disks":
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks")
return
}
if cap(z.Disks) >= int(zb0002) {
z.Disks = (z.Disks)[:zb0002]
} else {
z.Disks = make([]string, zb0002)
}
for za0001 := range z.Disks {
z.Disks[za0001], bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Disks", za0001)
return
}
}
case "Cache":
var zb0003 uint32
zb0003, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
if z.Cache == nil {
z.Cache = make(map[string]dataUsageEntryV6, zb0003)
} else if len(z.Cache) > 0 {
for key := range z.Cache {
delete(z.Cache, key)
}
}
for zb0003 > 0 {
var za0002 string
var za0003 dataUsageEntryV6
zb0003--
za0002, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Cache")
return
}
bts, err = za0003.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Cache", za0002)
return
}
z.Cache[za0002] = za0003
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageCacheV6) Msgsize() (s int) {
s = 1 + 5 + z.Info.Msgsize() + 6 + msgp.ArrayHeaderSize
for za0001 := range z.Disks {
s += msgp.StringPrefixSize + len(z.Disks[za0001])
}
s += 6 + msgp.MapHeaderSize
if z.Cache != nil {
for za0002, za0003 := range z.Cache {
_ = za0003
s += msgp.StringPrefixSize + len(za0002) + za0003.Msgsize()
}
}
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageEntry) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "ch":
err = z.Children.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
case "sz":
z.Size, err = dc.ReadInt64()
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
case "os":
z.Objects, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
case "vs":
z.Versions, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "Versions")
return
}
case "szs":
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
case "rs":
if dc.IsNil() {
err = dc.ReadNil()
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
z.ReplicationStats = nil
} else {
if z.ReplicationStats == nil {
z.ReplicationStats = new(replicationAllStats)
}
err = z.ReplicationStats.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
}
case "ats":
if dc.IsNil() {
err = dc.ReadNil()
if err != nil {
err = msgp.WrapError(err, "AllTierStats")
return
}
z.AllTierStats = nil
} else {
if z.AllTierStats == nil {
z.AllTierStats = new(allTierStats)
}
err = z.AllTierStats.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "AllTierStats")
return
}
}
case "c":
z.Compacted, err = dc.ReadBool()
if err != nil {
err = msgp.WrapError(err, "Compacted")
return
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
// EncodeMsg implements msgp.Encodable
func (z *dataUsageEntry) EncodeMsg(en *msgp.Writer) (err error) {
// omitempty: check for empty values
zb0001Len := uint32(8)
var zb0001Mask uint8 /* 8 bits */
if z.ReplicationStats == nil {
zb0001Len--
zb0001Mask |= 0x20
}
if z.AllTierStats == nil {
zb0001Len--
zb0001Mask |= 0x40
}
// variable map header, size zb0001Len
err = en.Append(0x80 | uint8(zb0001Len))
if err != nil {
return
}
if zb0001Len == 0 {
return
}
// write "ch"
err = en.Append(0xa2, 0x63, 0x68)
if err != nil {
return
}
err = z.Children.EncodeMsg(en)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
// write "sz"
err = en.Append(0xa2, 0x73, 0x7a)
if err != nil {
return
}
err = en.WriteInt64(z.Size)
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
// write "os"
err = en.Append(0xa2, 0x6f, 0x73)
if err != nil {
return
}
err = en.WriteUint64(z.Objects)
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
// write "vs"
err = en.Append(0xa2, 0x76, 0x73)
if err != nil {
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = en.WriteUint64(z.Versions)
if err != nil {
err = msgp.WrapError(err, "Versions")
return
}
// write "szs"
err = en.Append(0xa3, 0x73, 0x7a, 0x73)
if err != nil {
return
}
err = en.WriteArrayHeader(uint32(dataUsageBucketLen))
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
for za0001 := range z.ObjSizes {
err = en.WriteUint64(z.ObjSizes[za0001])
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
if (zb0001Mask & 0x20) == 0 { // if not empty
// write "rs"
err = en.Append(0xa2, 0x72, 0x73)
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
if err != nil {
return
}
if z.ReplicationStats == nil {
err = en.WriteNil()
if err != nil {
return
}
} else {
err = z.ReplicationStats.EncodeMsg(en)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
}
}
if (zb0001Mask & 0x40) == 0 { // if not empty
// write "ats"
err = en.Append(0xa3, 0x61, 0x74, 0x73)
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
if err != nil {
return
}
if z.AllTierStats == nil {
err = en.WriteNil()
if err != nil {
return
}
} else {
err = z.AllTierStats.EncodeMsg(en)
if err != nil {
err = msgp.WrapError(err, "AllTierStats")
return
}
}
}
// write "c"
err = en.Append(0xa1, 0x63)
if err != nil {
return
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
}
err = en.WriteBool(z.Compacted)
if err != nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = msgp.WrapError(err, "Compacted")
return
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z *dataUsageEntry) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
// omitempty: check for empty values
zb0001Len := uint32(8)
var zb0001Mask uint8 /* 8 bits */
if z.ReplicationStats == nil {
zb0001Len--
zb0001Mask |= 0x20
}
if z.AllTierStats == nil {
zb0001Len--
zb0001Mask |= 0x40
}
// variable map header, size zb0001Len
o = append(o, 0x80|uint8(zb0001Len))
if zb0001Len == 0 {
return
}
// string "ch"
o = append(o, 0xa2, 0x63, 0x68)
o, err = z.Children.MarshalMsg(o)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
// string "sz"
o = append(o, 0xa2, 0x73, 0x7a)
o = msgp.AppendInt64(o, z.Size)
// string "os"
o = append(o, 0xa2, 0x6f, 0x73)
o = msgp.AppendUint64(o, z.Objects)
// string "vs"
o = append(o, 0xa2, 0x76, 0x73)
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
o = msgp.AppendUint64(o, z.Versions)
// string "szs"
o = append(o, 0xa3, 0x73, 0x7a, 0x73)
o = msgp.AppendArrayHeader(o, uint32(dataUsageBucketLen))
for za0001 := range z.ObjSizes {
o = msgp.AppendUint64(o, z.ObjSizes[za0001])
}
if (zb0001Mask & 0x20) == 0 { // if not empty
// string "rs"
o = append(o, 0xa2, 0x72, 0x73)
if z.ReplicationStats == nil {
o = msgp.AppendNil(o)
} else {
o, err = z.ReplicationStats.MarshalMsg(o)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
}
}
if (zb0001Mask & 0x40) == 0 { // if not empty
// string "ats"
o = append(o, 0xa3, 0x61, 0x74, 0x73)
if z.AllTierStats == nil {
o = msgp.AppendNil(o)
} else {
o, err = z.AllTierStats.MarshalMsg(o)
if err != nil {
err = msgp.WrapError(err, "AllTierStats")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
}
}
// string "c"
o = append(o, 0xa1, 0x63)
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
o = msgp.AppendBool(o, z.Compacted)
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageEntry) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
if err != nil {
err = msgp.WrapError(err)
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
return
}
switch msgp.UnsafeString(field) {
case "ch":
bts, err = z.Children.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
case "sz":
z.Size, bts, err = msgp.ReadInt64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
case "os":
z.Objects, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
case "vs":
z.Versions, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Versions")
return
}
case "szs":
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
case "rs":
if msgp.IsNil(bts) {
bts, err = msgp.ReadNilBytes(bts)
if err != nil {
return
}
z.ReplicationStats = nil
} else {
if z.ReplicationStats == nil {
z.ReplicationStats = new(replicationAllStats)
}
bts, err = z.ReplicationStats.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
}
case "ats":
if msgp.IsNil(bts) {
bts, err = msgp.ReadNilBytes(bts)
if err != nil {
return
}
z.AllTierStats = nil
} else {
if z.AllTierStats == nil {
z.AllTierStats = new(allTierStats)
}
bts, err = z.AllTierStats.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "AllTierStats")
return
}
}
case "c":
z.Compacted, bts, err = msgp.ReadBoolBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Compacted")
return
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageEntry) Msgsize() (s int) {
s = 1 + 3 + z.Children.Msgsize() + 3 + msgp.Int64Size + 3 + msgp.Uint64Size + 3 + msgp.Uint64Size + 4 + msgp.ArrayHeaderSize + (dataUsageBucketLen * (msgp.Uint64Size)) + 3
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
if z.ReplicationStats == nil {
s += msgp.NilSize
} else {
s += z.ReplicationStats.Msgsize()
}
s += 4
if z.AllTierStats == nil {
s += msgp.NilSize
} else {
s += z.AllTierStats.Msgsize()
}
s += 2 + msgp.BoolSize
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageEntryV2) DecodeMsg(dc *msgp.Reader) (err error) {
var zb0001 uint32
zb0001, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 4 {
err = msgp.ArrayError{Wanted: 4, Got: zb0001}
return
}
z.Size, err = dc.ReadInt64()
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
z.Objects, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
err = z.Children.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageEntryV2) UnmarshalMsg(bts []byte) (o []byte, err error) {
var zb0001 uint32
zb0001, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 4 {
err = msgp.ArrayError{Wanted: 4, Got: zb0001}
return
}
z.Size, bts, err = msgp.ReadInt64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
z.Objects, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
bts, err = z.Children.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageEntryV2) Msgsize() (s int) {
s = 1 + msgp.Int64Size + msgp.Uint64Size + msgp.ArrayHeaderSize + (dataUsageBucketLen * (msgp.Uint64Size)) + z.Children.Msgsize()
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageEntryV3) DecodeMsg(dc *msgp.Reader) (err error) {
var zb0001 uint32
zb0001, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 8 {
err = msgp.ArrayError{Wanted: 8, Got: zb0001}
return
}
z.Size, err = dc.ReadInt64()
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
z.ReplicatedSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ReplicatedSize")
return
}
z.ReplicationPendingSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ReplicationPendingSize")
return
}
z.ReplicationFailedSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ReplicationFailedSize")
return
}
z.ReplicaSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
z.Objects, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
err = z.Children.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageEntryV3) UnmarshalMsg(bts []byte) (o []byte, err error) {
var zb0001 uint32
zb0001, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = msgp.WrapError(err)
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
if zb0001 != 8 {
err = msgp.ArrayError{Wanted: 8, Got: zb0001}
return
}
z.Size, bts, err = msgp.ReadInt64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
z.ReplicatedSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicatedSize")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
z.ReplicationPendingSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicationPendingSize")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
z.ReplicationFailedSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicationFailedSize")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
z.ReplicaSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
z.Objects, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
z.ObjSizes[za0001], bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
bts, err = z.Children.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageEntryV3) Msgsize() (s int) {
s = 1 + msgp.Int64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.ArrayHeaderSize + (dataUsageBucketLen * (msgp.Uint64Size)) + z.Children.Msgsize()
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageEntryV4) DecodeMsg(dc *msgp.Reader) (err error) {
var zb0001 uint32
zb0001, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 5 {
err = msgp.ArrayError{Wanted: 5, Got: zb0001}
return
}
err = z.Children.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
z.Size, err = dc.ReadInt64()
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
z.Objects, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
err = z.ReplicationStats.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageEntryV4) UnmarshalMsg(bts []byte) (o []byte, err error) {
var zb0001 uint32
zb0001, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 5 {
err = msgp.ArrayError{Wanted: 5, Got: zb0001}
return
}
bts, err = z.Children.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
z.Size, bts, err = msgp.ReadInt64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
z.Objects, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
bts, err = z.ReplicationStats.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
o = bts
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageEntryV4) Msgsize() (s int) {
s = 1 + z.Children.Msgsize() + msgp.Int64Size + msgp.Uint64Size + msgp.ArrayHeaderSize + (dataUsageBucketLen * (msgp.Uint64Size)) + z.ReplicationStats.Msgsize()
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
// DecodeMsg implements msgp.Decodable
func (z *dataUsageEntryV5) DecodeMsg(dc *msgp.Reader) (err error) {
var zb0001 uint32
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
zb0001, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 7 {
err = msgp.ArrayError{Wanted: 7, Got: zb0001}
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = z.Children.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
z.Size, err = dc.ReadInt64()
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
z.Objects, err = dc.ReadUint64()
if err != nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = msgp.WrapError(err, "Objects")
return
}
z.Versions, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "Versions")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = msgp.WrapError(err, "ObjSizes")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
if dc.IsNil() {
err = dc.ReadNil()
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
z.ReplicationStats = nil
} else {
if z.ReplicationStats == nil {
z.ReplicationStats = new(replicationStatsV1)
}
err = z.ReplicationStats.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
}
z.Compacted, err = dc.ReadBool()
if err != nil {
err = msgp.WrapError(err, "Compacted")
return
}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageEntryV5) UnmarshalMsg(bts []byte) (o []byte, err error) {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
var zb0001 uint32
zb0001, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
err = msgp.WrapError(err)
return
}
if zb0001 != 7 {
err = msgp.ArrayError{Wanted: 7, Got: zb0001}
feat: add dynamic usage cache (#12229) A cache structure will be kept with a tree of usages. The cache is a tree structure where each keeps track of its children. An uncompacted branch contains a count of the files only directly at the branch level, and contains link to children branches or leaves. The leaves are "compacted" based on a number of properties. A compacted leaf contains the totals of all files beneath it. A leaf is only scanned once every dataUsageUpdateDirCycles, rarer if the bloom filter for the path is clean and no lifecycles are applied. Skipped leaves have their totals transferred from the previous cycle. A clean leaf will be included once every healFolderIncludeProb for partial heal scans. When selected there is a one in healObjectSelectProb that any object will be chosen for heal scan. Compaction happens when either: - The folder (and subfolders) contains less than dataScannerCompactLeastObject objects. - The folder itself contains more than dataScannerCompactAtFolders folders. - The folder only contains objects and no subfolders. - A bucket root will never be compacted. Furthermore, if a has more than dataScannerCompactAtChildren recursive children (uncompacted folders) the tree will be recursively scanned and the branches with the least number of objects will be compacted until the limit is reached. This ensures that any branch will never contain an unreasonable amount of other branches, and also that small branches with few objects don't take up unreasonable amounts of space. Whenever a branch is scanned, it is assumed that it will be un-compacted before it hits any of the above limits. This will make the branch rebalance itself when scanned if the distribution of objects has changed. TLDR; With current values: No bucket will ever have more than 10000 child nodes recursively. No single folder will have more than 2500 child nodes by itself. All subfolders are compacted if they have less than 500 objects in them recursively. We accumulate the (non-deletemarker) version count for paths as well, since we are changing the structure anyway.
2021-05-12 03:36:15 +02:00
return
}
bts, err = z.Children.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
z.Size, bts, err = msgp.ReadInt64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
z.Objects, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
z.Versions, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Versions")
return
}
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
if msgp.IsNil(bts) {
bts, err = msgp.ReadNilBytes(bts)
if err != nil {
return
}
z.ReplicationStats = nil
} else {
if z.ReplicationStats == nil {
z.ReplicationStats = new(replicationStatsV1)
}
bts, err = z.ReplicationStats.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
}
z.Compacted, bts, err = msgp.ReadBoolBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Compacted")
return
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageEntryV5) Msgsize() (s int) {
s = 1 + z.Children.Msgsize() + msgp.Int64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.ArrayHeaderSize + (dataUsageBucketLen * (msgp.Uint64Size))
if z.ReplicationStats == nil {
s += msgp.NilSize
} else {
s += z.ReplicationStats.Msgsize()
}
s += msgp.BoolSize
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageEntryV6) DecodeMsg(dc *msgp.Reader) (err error) {
var zb0001 uint32
zb0001, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 7 {
err = msgp.ArrayError{Wanted: 7, Got: zb0001}
return
}
err = z.Children.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
z.Size, err = dc.ReadInt64()
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
z.Objects, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
z.Versions, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "Versions")
return
}
var zb0002 uint32
zb0002, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
if dc.IsNil() {
err = dc.ReadNil()
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
z.ReplicationStats = nil
} else {
if z.ReplicationStats == nil {
z.ReplicationStats = new(replicationAllStatsV1)
}
err = z.ReplicationStats.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
}
z.Compacted, err = dc.ReadBool()
if err != nil {
err = msgp.WrapError(err, "Compacted")
return
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageEntryV6) UnmarshalMsg(bts []byte) (o []byte, err error) {
var zb0001 uint32
zb0001, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 7 {
err = msgp.ArrayError{Wanted: 7, Got: zb0001}
return
}
bts, err = z.Children.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Children")
return
}
z.Size, bts, err = msgp.ReadInt64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Size")
return
}
z.Objects, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Objects")
return
}
z.Versions, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "Versions")
return
}
var zb0002 uint32
zb0002, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes")
return
}
if zb0002 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0002}
return
}
for za0001 := range z.ObjSizes {
z.ObjSizes[za0001], bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ObjSizes", za0001)
return
}
}
if msgp.IsNil(bts) {
bts, err = msgp.ReadNilBytes(bts)
if err != nil {
return
}
z.ReplicationStats = nil
} else {
if z.ReplicationStats == nil {
z.ReplicationStats = new(replicationAllStatsV1)
}
bts, err = z.ReplicationStats.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicationStats")
return
}
}
z.Compacted, bts, err = msgp.ReadBoolBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Compacted")
return
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *dataUsageEntryV6) Msgsize() (s int) {
s = 1 + z.Children.Msgsize() + msgp.Int64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.ArrayHeaderSize + (dataUsageBucketLen * (msgp.Uint64Size))
if z.ReplicationStats == nil {
s += msgp.NilSize
} else {
s += z.ReplicationStats.Msgsize()
}
s += msgp.BoolSize
return
}
// DecodeMsg implements msgp.Decodable
func (z *dataUsageHash) DecodeMsg(dc *msgp.Reader) (err error) {
{
var zb0001 string
zb0001, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err)
return
}
(*z) = dataUsageHash(zb0001)
}
return
}
// EncodeMsg implements msgp.Encodable
func (z dataUsageHash) EncodeMsg(en *msgp.Writer) (err error) {
err = en.WriteString(string(z))
if err != nil {
err = msgp.WrapError(err)
return
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z dataUsageHash) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
o = msgp.AppendString(o, string(z))
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *dataUsageHash) UnmarshalMsg(bts []byte) (o []byte, err error) {
{
var zb0001 string
zb0001, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
(*z) = dataUsageHash(zb0001)
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z dataUsageHash) Msgsize() (s int) {
s = msgp.StringPrefixSize + len(string(z))
return
}
// DecodeMsg implements msgp.Decodable
func (z *replicationAllStats) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "t":
var zb0002 uint32
zb0002, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
if z.Targets == nil {
z.Targets = make(map[string]replicationStats, zb0002)
} else if len(z.Targets) > 0 {
for key := range z.Targets {
delete(z.Targets, key)
}
}
for zb0002 > 0 {
zb0002--
var za0001 string
var za0002 replicationStats
za0001, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
err = za0002.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Targets", za0001)
return
}
z.Targets[za0001] = za0002
}
case "r":
z.ReplicaSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
// EncodeMsg implements msgp.Encodable
func (z *replicationAllStats) EncodeMsg(en *msgp.Writer) (err error) {
// omitempty: check for empty values
zb0001Len := uint32(2)
var zb0001Mask uint8 /* 2 bits */
if z.Targets == nil {
zb0001Len--
zb0001Mask |= 0x1
}
if z.ReplicaSize == 0 {
zb0001Len--
zb0001Mask |= 0x2
}
// variable map header, size zb0001Len
err = en.Append(0x80 | uint8(zb0001Len))
if err != nil {
return
}
if zb0001Len == 0 {
return
}
if (zb0001Mask & 0x1) == 0 { // if not empty
// write "t"
err = en.Append(0xa1, 0x74)
if err != nil {
return
}
err = en.WriteMapHeader(uint32(len(z.Targets)))
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
for za0001, za0002 := range z.Targets {
err = en.WriteString(za0001)
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
err = za0002.EncodeMsg(en)
if err != nil {
err = msgp.WrapError(err, "Targets", za0001)
return
}
}
}
if (zb0001Mask & 0x2) == 0 { // if not empty
// write "r"
err = en.Append(0xa1, 0x72)
if err != nil {
return
}
err = en.WriteUint64(z.ReplicaSize)
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z *replicationAllStats) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
// omitempty: check for empty values
zb0001Len := uint32(2)
var zb0001Mask uint8 /* 2 bits */
if z.Targets == nil {
zb0001Len--
zb0001Mask |= 0x1
}
if z.ReplicaSize == 0 {
zb0001Len--
zb0001Mask |= 0x2
}
// variable map header, size zb0001Len
o = append(o, 0x80|uint8(zb0001Len))
if zb0001Len == 0 {
return
}
if (zb0001Mask & 0x1) == 0 { // if not empty
// string "t"
o = append(o, 0xa1, 0x74)
o = msgp.AppendMapHeader(o, uint32(len(z.Targets)))
for za0001, za0002 := range z.Targets {
o = msgp.AppendString(o, za0001)
o, err = za0002.MarshalMsg(o)
if err != nil {
err = msgp.WrapError(err, "Targets", za0001)
return
}
}
}
if (zb0001Mask & 0x2) == 0 { // if not empty
// string "r"
o = append(o, 0xa1, 0x72)
o = msgp.AppendUint64(o, z.ReplicaSize)
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *replicationAllStats) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "t":
var zb0002 uint32
zb0002, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
if z.Targets == nil {
z.Targets = make(map[string]replicationStats, zb0002)
} else if len(z.Targets) > 0 {
for key := range z.Targets {
delete(z.Targets, key)
}
}
for zb0002 > 0 {
var za0001 string
var za0002 replicationStats
zb0002--
za0001, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
bts, err = za0002.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Targets", za0001)
return
}
z.Targets[za0001] = za0002
}
case "r":
z.ReplicaSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *replicationAllStats) Msgsize() (s int) {
s = 1 + 2 + msgp.MapHeaderSize
if z.Targets != nil {
for za0001, za0002 := range z.Targets {
_ = za0002
s += msgp.StringPrefixSize + len(za0001) + za0002.Msgsize()
}
}
s += 2 + msgp.Uint64Size
return
}
// DecodeMsg implements msgp.Decodable
func (z *replicationAllStatsV1) DecodeMsg(dc *msgp.Reader) (err error) {
var zb0001 uint32
zb0001, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 2 {
err = msgp.ArrayError{Wanted: 2, Got: zb0001}
return
}
var zb0002 uint32
zb0002, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
if z.Targets == nil {
z.Targets = make(map[string]replicationStats, zb0002)
} else if len(z.Targets) > 0 {
for key := range z.Targets {
delete(z.Targets, key)
}
}
for zb0002 > 0 {
zb0002--
var za0001 string
var za0002 replicationStats
za0001, err = dc.ReadString()
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
err = za0002.DecodeMsg(dc)
if err != nil {
err = msgp.WrapError(err, "Targets", za0001)
return
}
z.Targets[za0001] = za0002
}
z.ReplicaSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
return
}
// EncodeMsg implements msgp.Encodable
func (z *replicationAllStatsV1) EncodeMsg(en *msgp.Writer) (err error) {
// array header, size 2
err = en.Append(0x92)
if err != nil {
return
}
err = en.WriteMapHeader(uint32(len(z.Targets)))
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
for za0001, za0002 := range z.Targets {
err = en.WriteString(za0001)
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
err = za0002.EncodeMsg(en)
if err != nil {
err = msgp.WrapError(err, "Targets", za0001)
return
}
}
err = en.WriteUint64(z.ReplicaSize)
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z *replicationAllStatsV1) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
// array header, size 2
o = append(o, 0x92)
o = msgp.AppendMapHeader(o, uint32(len(z.Targets)))
for za0001, za0002 := range z.Targets {
o = msgp.AppendString(o, za0001)
o, err = za0002.MarshalMsg(o)
if err != nil {
err = msgp.WrapError(err, "Targets", za0001)
return
}
}
o = msgp.AppendUint64(o, z.ReplicaSize)
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *replicationAllStatsV1) UnmarshalMsg(bts []byte) (o []byte, err error) {
var zb0001 uint32
zb0001, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 2 {
err = msgp.ArrayError{Wanted: 2, Got: zb0001}
return
}
var zb0002 uint32
zb0002, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
if z.Targets == nil {
z.Targets = make(map[string]replicationStats, zb0002)
} else if len(z.Targets) > 0 {
for key := range z.Targets {
delete(z.Targets, key)
}
}
for zb0002 > 0 {
var za0001 string
var za0002 replicationStats
zb0002--
za0001, bts, err = msgp.ReadStringBytes(bts)
if err != nil {
err = msgp.WrapError(err, "Targets")
return
}
bts, err = za0002.UnmarshalMsg(bts)
if err != nil {
err = msgp.WrapError(err, "Targets", za0001)
return
}
z.Targets[za0001] = za0002
}
z.ReplicaSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *replicationAllStatsV1) Msgsize() (s int) {
s = 1 + msgp.MapHeaderSize
if z.Targets != nil {
for za0001, za0002 := range z.Targets {
_ = za0002
s += msgp.StringPrefixSize + len(za0001) + za0002.Msgsize()
}
}
s += msgp.Uint64Size
return
}
// DecodeMsg implements msgp.Decodable
func (z *replicationStats) DecodeMsg(dc *msgp.Reader) (err error) {
var zb0001 uint32
zb0001, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 9 {
err = msgp.ArrayError{Wanted: 9, Got: zb0001}
return
}
z.PendingSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "PendingSize")
return
}
z.ReplicatedSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ReplicatedSize")
return
}
z.FailedSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "FailedSize")
return
}
z.FailedCount, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "FailedCount")
return
}
z.PendingCount, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "PendingCount")
return
}
z.MissedThresholdSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "MissedThresholdSize")
return
}
z.AfterThresholdSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "AfterThresholdSize")
return
}
z.MissedThresholdCount, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "MissedThresholdCount")
return
}
z.AfterThresholdCount, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "AfterThresholdCount")
return
}
return
}
// EncodeMsg implements msgp.Encodable
func (z *replicationStats) EncodeMsg(en *msgp.Writer) (err error) {
// array header, size 9
err = en.Append(0x99)
if err != nil {
return
}
err = en.WriteUint64(z.PendingSize)
if err != nil {
err = msgp.WrapError(err, "PendingSize")
return
}
err = en.WriteUint64(z.ReplicatedSize)
if err != nil {
err = msgp.WrapError(err, "ReplicatedSize")
return
}
err = en.WriteUint64(z.FailedSize)
if err != nil {
err = msgp.WrapError(err, "FailedSize")
return
}
err = en.WriteUint64(z.FailedCount)
if err != nil {
err = msgp.WrapError(err, "FailedCount")
return
}
err = en.WriteUint64(z.PendingCount)
if err != nil {
err = msgp.WrapError(err, "PendingCount")
return
}
err = en.WriteUint64(z.MissedThresholdSize)
if err != nil {
err = msgp.WrapError(err, "MissedThresholdSize")
return
}
err = en.WriteUint64(z.AfterThresholdSize)
if err != nil {
err = msgp.WrapError(err, "AfterThresholdSize")
return
}
err = en.WriteUint64(z.MissedThresholdCount)
if err != nil {
err = msgp.WrapError(err, "MissedThresholdCount")
return
}
err = en.WriteUint64(z.AfterThresholdCount)
if err != nil {
err = msgp.WrapError(err, "AfterThresholdCount")
return
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z *replicationStats) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
// array header, size 9
o = append(o, 0x99)
o = msgp.AppendUint64(o, z.PendingSize)
o = msgp.AppendUint64(o, z.ReplicatedSize)
o = msgp.AppendUint64(o, z.FailedSize)
o = msgp.AppendUint64(o, z.FailedCount)
o = msgp.AppendUint64(o, z.PendingCount)
o = msgp.AppendUint64(o, z.MissedThresholdSize)
o = msgp.AppendUint64(o, z.AfterThresholdSize)
o = msgp.AppendUint64(o, z.MissedThresholdCount)
o = msgp.AppendUint64(o, z.AfterThresholdCount)
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *replicationStats) UnmarshalMsg(bts []byte) (o []byte, err error) {
var zb0001 uint32
zb0001, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 9 {
err = msgp.ArrayError{Wanted: 9, Got: zb0001}
return
}
z.PendingSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "PendingSize")
return
}
z.ReplicatedSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicatedSize")
return
}
z.FailedSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "FailedSize")
return
}
z.FailedCount, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "FailedCount")
return
}
z.PendingCount, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "PendingCount")
return
}
z.MissedThresholdSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "MissedThresholdSize")
return
}
z.AfterThresholdSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "AfterThresholdSize")
return
}
z.MissedThresholdCount, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "MissedThresholdCount")
return
}
z.AfterThresholdCount, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "AfterThresholdCount")
return
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *replicationStats) Msgsize() (s int) {
s = 1 + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size
return
}
// DecodeMsg implements msgp.Decodable
func (z *replicationStatsV1) DecodeMsg(dc *msgp.Reader) (err error) {
var zb0001 uint32
zb0001, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 10 {
err = msgp.ArrayError{Wanted: 10, Got: zb0001}
return
}
z.PendingSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "PendingSize")
return
}
z.ReplicatedSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ReplicatedSize")
return
}
z.FailedSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "FailedSize")
return
}
z.ReplicaSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
z.FailedCount, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "FailedCount")
return
}
z.PendingCount, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "PendingCount")
return
}
z.MissedThresholdSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "MissedThresholdSize")
return
}
z.AfterThresholdSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "AfterThresholdSize")
return
}
z.MissedThresholdCount, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "MissedThresholdCount")
return
}
z.AfterThresholdCount, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "AfterThresholdCount")
return
}
return
}
// EncodeMsg implements msgp.Encodable
func (z *replicationStatsV1) EncodeMsg(en *msgp.Writer) (err error) {
// array header, size 10
err = en.Append(0x9a)
if err != nil {
return
}
err = en.WriteUint64(z.PendingSize)
if err != nil {
err = msgp.WrapError(err, "PendingSize")
return
}
err = en.WriteUint64(z.ReplicatedSize)
if err != nil {
err = msgp.WrapError(err, "ReplicatedSize")
return
}
err = en.WriteUint64(z.FailedSize)
if err != nil {
err = msgp.WrapError(err, "FailedSize")
return
}
err = en.WriteUint64(z.ReplicaSize)
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
err = en.WriteUint64(z.FailedCount)
if err != nil {
err = msgp.WrapError(err, "FailedCount")
return
}
err = en.WriteUint64(z.PendingCount)
if err != nil {
err = msgp.WrapError(err, "PendingCount")
return
}
err = en.WriteUint64(z.MissedThresholdSize)
if err != nil {
err = msgp.WrapError(err, "MissedThresholdSize")
return
}
err = en.WriteUint64(z.AfterThresholdSize)
if err != nil {
err = msgp.WrapError(err, "AfterThresholdSize")
return
}
err = en.WriteUint64(z.MissedThresholdCount)
if err != nil {
err = msgp.WrapError(err, "MissedThresholdCount")
return
}
err = en.WriteUint64(z.AfterThresholdCount)
if err != nil {
err = msgp.WrapError(err, "AfterThresholdCount")
return
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z *replicationStatsV1) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
// array header, size 10
o = append(o, 0x9a)
o = msgp.AppendUint64(o, z.PendingSize)
o = msgp.AppendUint64(o, z.ReplicatedSize)
o = msgp.AppendUint64(o, z.FailedSize)
o = msgp.AppendUint64(o, z.ReplicaSize)
o = msgp.AppendUint64(o, z.FailedCount)
o = msgp.AppendUint64(o, z.PendingCount)
o = msgp.AppendUint64(o, z.MissedThresholdSize)
o = msgp.AppendUint64(o, z.AfterThresholdSize)
o = msgp.AppendUint64(o, z.MissedThresholdCount)
o = msgp.AppendUint64(o, z.AfterThresholdCount)
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *replicationStatsV1) UnmarshalMsg(bts []byte) (o []byte, err error) {
var zb0001 uint32
zb0001, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != 10 {
err = msgp.ArrayError{Wanted: 10, Got: zb0001}
return
}
z.PendingSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "PendingSize")
return
}
z.ReplicatedSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicatedSize")
return
}
z.FailedSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "FailedSize")
return
}
z.ReplicaSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "ReplicaSize")
return
}
z.FailedCount, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "FailedCount")
return
}
z.PendingCount, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "PendingCount")
return
}
z.MissedThresholdSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "MissedThresholdSize")
return
}
z.AfterThresholdSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "AfterThresholdSize")
return
}
z.MissedThresholdCount, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "MissedThresholdCount")
return
}
z.AfterThresholdCount, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "AfterThresholdCount")
return
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *replicationStatsV1) Msgsize() (s int) {
s = 1 + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size + msgp.Uint64Size
return
}
// DecodeMsg implements msgp.Decodable
func (z *sizeHistogram) DecodeMsg(dc *msgp.Reader) (err error) {
var zb0001 uint32
zb0001, err = dc.ReadArrayHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0001}
return
}
for za0001 := range z {
z[za0001], err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, za0001)
return
}
}
return
}
// EncodeMsg implements msgp.Encodable
func (z *sizeHistogram) EncodeMsg(en *msgp.Writer) (err error) {
err = en.WriteArrayHeader(uint32(dataUsageBucketLen))
if err != nil {
err = msgp.WrapError(err)
return
}
for za0001 := range z {
err = en.WriteUint64(z[za0001])
if err != nil {
err = msgp.WrapError(err, za0001)
return
}
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z *sizeHistogram) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
o = msgp.AppendArrayHeader(o, uint32(dataUsageBucketLen))
for za0001 := range z {
o = msgp.AppendUint64(o, z[za0001])
}
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *sizeHistogram) UnmarshalMsg(bts []byte) (o []byte, err error) {
var zb0001 uint32
zb0001, bts, err = msgp.ReadArrayHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
if zb0001 != uint32(dataUsageBucketLen) {
err = msgp.ArrayError{Wanted: uint32(dataUsageBucketLen), Got: zb0001}
return
}
for za0001 := range z {
z[za0001], bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, za0001)
return
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z *sizeHistogram) Msgsize() (s int) {
s = msgp.ArrayHeaderSize + (dataUsageBucketLen * (msgp.Uint64Size))
return
}
// DecodeMsg implements msgp.Decodable
func (z *tierStats) DecodeMsg(dc *msgp.Reader) (err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, err = dc.ReadMapHeader()
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, err = dc.ReadMapKeyPtr()
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "ts":
z.TotalSize, err = dc.ReadUint64()
if err != nil {
err = msgp.WrapError(err, "TotalSize")
return
}
case "nv":
z.NumVersions, err = dc.ReadInt()
if err != nil {
err = msgp.WrapError(err, "NumVersions")
return
}
case "no":
z.NumObjects, err = dc.ReadInt()
if err != nil {
err = msgp.WrapError(err, "NumObjects")
return
}
default:
err = dc.Skip()
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
return
}
// EncodeMsg implements msgp.Encodable
func (z tierStats) EncodeMsg(en *msgp.Writer) (err error) {
// map header, size 3
// write "ts"
err = en.Append(0x83, 0xa2, 0x74, 0x73)
if err != nil {
return
}
err = en.WriteUint64(z.TotalSize)
if err != nil {
err = msgp.WrapError(err, "TotalSize")
return
}
// write "nv"
err = en.Append(0xa2, 0x6e, 0x76)
if err != nil {
return
}
err = en.WriteInt(z.NumVersions)
if err != nil {
err = msgp.WrapError(err, "NumVersions")
return
}
// write "no"
err = en.Append(0xa2, 0x6e, 0x6f)
if err != nil {
return
}
err = en.WriteInt(z.NumObjects)
if err != nil {
err = msgp.WrapError(err, "NumObjects")
return
}
return
}
// MarshalMsg implements msgp.Marshaler
func (z tierStats) MarshalMsg(b []byte) (o []byte, err error) {
o = msgp.Require(b, z.Msgsize())
// map header, size 3
// string "ts"
o = append(o, 0x83, 0xa2, 0x74, 0x73)
o = msgp.AppendUint64(o, z.TotalSize)
// string "nv"
o = append(o, 0xa2, 0x6e, 0x76)
o = msgp.AppendInt(o, z.NumVersions)
// string "no"
o = append(o, 0xa2, 0x6e, 0x6f)
o = msgp.AppendInt(o, z.NumObjects)
return
}
// UnmarshalMsg implements msgp.Unmarshaler
func (z *tierStats) UnmarshalMsg(bts []byte) (o []byte, err error) {
var field []byte
_ = field
var zb0001 uint32
zb0001, bts, err = msgp.ReadMapHeaderBytes(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
for zb0001 > 0 {
zb0001--
field, bts, err = msgp.ReadMapKeyZC(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
switch msgp.UnsafeString(field) {
case "ts":
z.TotalSize, bts, err = msgp.ReadUint64Bytes(bts)
if err != nil {
err = msgp.WrapError(err, "TotalSize")
return
}
case "nv":
z.NumVersions, bts, err = msgp.ReadIntBytes(bts)
if err != nil {
err = msgp.WrapError(err, "NumVersions")
return
}
case "no":
z.NumObjects, bts, err = msgp.ReadIntBytes(bts)
if err != nil {
err = msgp.WrapError(err, "NumObjects")
return
}
default:
bts, err = msgp.Skip(bts)
if err != nil {
err = msgp.WrapError(err)
return
}
}
}
o = bts
return
}
// Msgsize returns an upper bound estimate of the number of bytes occupied by the serialized message
func (z tierStats) Msgsize() (s int) {
s = 1 + 3 + msgp.Uint64Size + 3 + msgp.IntSize + 3 + msgp.IntSize
return
}