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rpc.pb.go
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rpc.pb.go
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// Code generated by protoc-gen-gogo. DO NOT EDIT.
// source: rpcpb/rpc.proto
/*
Package rpcpb is a generated protocol buffer package.
It is generated from these files:
rpcpb/rpc.proto
It has these top-level messages:
Request
SnapshotInfo
Response
Member
Tester
Etcd
*/
package rpcpb
import proto "github.com/golang/protobuf/proto"
import fmt "fmt"
import math "math"
import _ "github.com/gogo/protobuf/gogoproto"
import context "golang.org/x/net/context"
import grpc "google.golang.org/grpc"
import io "io"
// Reference imports to suppress errors if they are not otherwise used.
var _ = proto.Marshal
var _ = fmt.Errorf
var _ = math.Inf
// This is a compile-time assertion to ensure that this generated file
// is compatible with the proto package it is being compiled against.
// A compilation error at this line likely means your copy of the
// proto package needs to be updated.
const _ = proto.ProtoPackageIsVersion2 // please upgrade the proto package
type Operation int32
const (
// NOT_STARTED is the agent status before etcd first start.
Operation_NOT_STARTED Operation = 0
// INITIAL_START_ETCD is only called to start etcd, the very first time.
Operation_INITIAL_START_ETCD Operation = 10
// RESTART_ETCD is sent to restart killed etcd.
Operation_RESTART_ETCD Operation = 11
// SIGTERM_ETCD pauses etcd process while keeping data directories
// and previous etcd configurations.
Operation_SIGTERM_ETCD Operation = 20
// SIGQUIT_ETCD_AND_REMOVE_DATA kills etcd process and removes all data
// directories to simulate destroying the whole machine.
Operation_SIGQUIT_ETCD_AND_REMOVE_DATA Operation = 21
// SAVE_SNAPSHOT is sent to trigger local member to download its snapshot
// onto its local disk with the specified path from tester.
Operation_SAVE_SNAPSHOT Operation = 30
// RESTORE_RESTART_FROM_SNAPSHOT is sent to trigger local member to
// restore a cluster from existing snapshot from disk, and restart
// an etcd instance from recovered data.
Operation_RESTORE_RESTART_FROM_SNAPSHOT Operation = 31
// RESTART_FROM_SNAPSHOT is sent to trigger local member to restart
// and join an existing cluster that has been recovered from a snapshot.
// Local member joins this cluster with fresh data.
Operation_RESTART_FROM_SNAPSHOT Operation = 32
// SIGQUIT_ETCD_AND_ARCHIVE_DATA is sent when consistency check failed,
// thus need to archive etcd data directories.
Operation_SIGQUIT_ETCD_AND_ARCHIVE_DATA Operation = 40
// SIGQUIT_ETCD_AND_REMOVE_DATA_AND_STOP_AGENT destroys etcd process,
// etcd data, and agent server.
Operation_SIGQUIT_ETCD_AND_REMOVE_DATA_AND_STOP_AGENT Operation = 41
// BLACKHOLE_PEER_PORT_TX_RX drops all outgoing/incoming packets from/to
// the peer port on target member's peer port.
Operation_BLACKHOLE_PEER_PORT_TX_RX Operation = 100
// UNBLACKHOLE_PEER_PORT_TX_RX removes outgoing/incoming packet dropping.
Operation_UNBLACKHOLE_PEER_PORT_TX_RX Operation = 101
// DELAY_PEER_PORT_TX_RX delays all outgoing/incoming packets from/to
// the peer port on target member's peer port.
Operation_DELAY_PEER_PORT_TX_RX Operation = 200
// UNDELAY_PEER_PORT_TX_RX removes all outgoing/incoming delays.
Operation_UNDELAY_PEER_PORT_TX_RX Operation = 201
)
var Operation_name = map[int32]string{
0: "NOT_STARTED",
10: "INITIAL_START_ETCD",
11: "RESTART_ETCD",
20: "SIGTERM_ETCD",
21: "SIGQUIT_ETCD_AND_REMOVE_DATA",
30: "SAVE_SNAPSHOT",
31: "RESTORE_RESTART_FROM_SNAPSHOT",
32: "RESTART_FROM_SNAPSHOT",
40: "SIGQUIT_ETCD_AND_ARCHIVE_DATA",
41: "SIGQUIT_ETCD_AND_REMOVE_DATA_AND_STOP_AGENT",
100: "BLACKHOLE_PEER_PORT_TX_RX",
101: "UNBLACKHOLE_PEER_PORT_TX_RX",
200: "DELAY_PEER_PORT_TX_RX",
201: "UNDELAY_PEER_PORT_TX_RX",
}
var Operation_value = map[string]int32{
"NOT_STARTED": 0,
"INITIAL_START_ETCD": 10,
"RESTART_ETCD": 11,
"SIGTERM_ETCD": 20,
"SIGQUIT_ETCD_AND_REMOVE_DATA": 21,
"SAVE_SNAPSHOT": 30,
"RESTORE_RESTART_FROM_SNAPSHOT": 31,
"RESTART_FROM_SNAPSHOT": 32,
"SIGQUIT_ETCD_AND_ARCHIVE_DATA": 40,
"SIGQUIT_ETCD_AND_REMOVE_DATA_AND_STOP_AGENT": 41,
"BLACKHOLE_PEER_PORT_TX_RX": 100,
"UNBLACKHOLE_PEER_PORT_TX_RX": 101,
"DELAY_PEER_PORT_TX_RX": 200,
"UNDELAY_PEER_PORT_TX_RX": 201,
}
func (x Operation) String() string {
return proto.EnumName(Operation_name, int32(x))
}
func (Operation) EnumDescriptor() ([]byte, []int) { return fileDescriptorRpc, []int{0} }
// Case defines various system faults or test case in distributed systems,
// in order to verify correct behavior of etcd servers and clients.
type Case int32
const (
// SIGTERM_ONE_FOLLOWER stops a randomly chosen follower (non-leader)
// but does not delete its data directories on disk for next restart.
// It waits "delay-ms" before recovering this failure.
// The expected behavior is that the follower comes back online
// and rejoins the cluster, and then each member continues to process
// client requests ('Put' request that requires Raft consensus).
Case_SIGTERM_ONE_FOLLOWER Case = 0
// SIGTERM_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT stops a randomly chosen
// follower but does not delete its data directories on disk for next
// restart. And waits until most up-to-date node (leader) applies the
// snapshot count of entries since the stop operation.
// The expected behavior is that the follower comes back online and
// rejoins the cluster, and then active leader sends snapshot
// to the follower to force it to follow the leader's log.
// As always, after recovery, each member must be able to process
// client requests.
Case_SIGTERM_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT Case = 1
// SIGTERM_LEADER stops the active leader node but does not delete its
// data directories on disk for next restart. Then it waits "delay-ms"
// before recovering this failure, in order to trigger election timeouts.
// The expected behavior is that a new leader gets elected, and the
// old leader comes back online and rejoins the cluster as a follower.
// As always, after recovery, each member must be able to process
// client requests.
Case_SIGTERM_LEADER Case = 2
// SIGTERM_LEADER_UNTIL_TRIGGER_SNAPSHOT stops the active leader node
// but does not delete its data directories on disk for next restart.
// And waits until most up-to-date node ("new" leader) applies the
// snapshot count of entries since the stop operation.
// The expected behavior is that cluster elects a new leader, and the
// old leader comes back online and rejoins the cluster as a follower.
// And it receives the snapshot from the new leader to overwrite its
// store. As always, after recovery, each member must be able to
// process client requests.
Case_SIGTERM_LEADER_UNTIL_TRIGGER_SNAPSHOT Case = 3
// SIGTERM_QUORUM stops majority number of nodes to make the whole cluster
// inoperable but does not delete data directories on stopped nodes
// for next restart. And it waits "delay-ms" before recovering failure.
// The expected behavior is that nodes come back online, thus cluster
// comes back operative as well. As always, after recovery, each member
// must be able to process client requests.
Case_SIGTERM_QUORUM Case = 4
// SIGTERM_ALL stops the whole cluster but does not delete data directories
// on disk for next restart. And it waits "delay-ms" before recovering
// this failure.
// The expected behavior is that nodes come back online, thus cluster
// comes back operative as well. As always, after recovery, each member
// must be able to process client requests.
Case_SIGTERM_ALL Case = 5
// SIGQUIT_AND_REMOVE_ONE_FOLLOWER stops a randomly chosen follower
// (non-leader), deletes its data directories on disk, and removes
// this member from cluster (membership reconfiguration). On recovery,
// tester adds a new member, and this member joins the existing cluster
// with fresh data. It waits "delay-ms" before recovering this
// failure. This simulates destroying one follower machine, where operator
// needs to add a new member from a fresh machine.
// The expected behavior is that a new member joins the existing cluster,
// and then each member continues to process client requests.
Case_SIGQUIT_AND_REMOVE_ONE_FOLLOWER Case = 10
// SIGQUIT_AND_REMOVE_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT stops a randomly
// chosen follower, deletes its data directories on disk, and removes
// this member from cluster (membership reconfiguration). On recovery,
// tester adds a new member, and this member joins the existing cluster
// restart. On member remove, cluster waits until most up-to-date node
// (leader) applies the snapshot count of entries since the stop operation.
// This simulates destroying a leader machine, where operator needs to add
// a new member from a fresh machine.
// The expected behavior is that a new member joins the existing cluster,
// and receives a snapshot from the active leader. As always, after
// recovery, each member must be able to process client requests.
Case_SIGQUIT_AND_REMOVE_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT Case = 11
// SIGQUIT_AND_REMOVE_LEADER stops the active leader node, deletes its
// data directories on disk, and removes this member from cluster.
// On recovery, tester adds a new member, and this member joins the
// existing cluster with fresh data. It waits "delay-ms" before
// recovering this failure. This simulates destroying a leader machine,
// where operator needs to add a new member from a fresh machine.
// The expected behavior is that a new member joins the existing cluster,
// and then each member continues to process client requests.
Case_SIGQUIT_AND_REMOVE_LEADER Case = 12
// SIGQUIT_AND_REMOVE_LEADER_UNTIL_TRIGGER_SNAPSHOT stops the active leader,
// deletes its data directories on disk, and removes this member from
// cluster (membership reconfiguration). On recovery, tester adds a new
// member, and this member joins the existing cluster restart. On member
// remove, cluster waits until most up-to-date node (new leader) applies
// the snapshot count of entries since the stop operation. This simulates
// destroying a leader machine, where operator needs to add a new member
// from a fresh machine.
// The expected behavior is that on member remove, cluster elects a new
// leader, and a new member joins the existing cluster and receives a
// snapshot from the newly elected leader. As always, after recovery, each
// member must be able to process client requests.
Case_SIGQUIT_AND_REMOVE_LEADER_UNTIL_TRIGGER_SNAPSHOT Case = 13
// SIGQUIT_AND_REMOVE_QUORUM_AND_RESTORE_LEADER_SNAPSHOT_FROM_SCRATCH first
// stops majority number of nodes, deletes data directories on those quorum
// nodes, to make the whole cluster inoperable. Now that quorum and their
// data are totally destroyed, cluster cannot even remove unavailable nodes
// (e.g. 2 out of 3 are lost, so no leader can be elected).
// Let's assume 3-node cluster of node A, B, and C. One day, node A and B
// are destroyed and all their data are gone. The only viable solution is
// to recover from C's latest snapshot.
//
// To simulate:
// 1. Assume node C is the current leader with most up-to-date data.
// 2. Download snapshot from node C, before destroying node A and B.
// 3. Destroy node A and B, and make the whole cluster inoperable.
// 4. Now node C cannot operate either.
// 5. SIGTERM node C and remove its data directories.
// 6. Restore a new seed member from node C's latest snapshot file.
// 7. Add another member to establish 2-node cluster.
// 8. Add another member to establish 3-node cluster.
// 9. Add more if any.
//
// The expected behavior is that etcd successfully recovers from such
// disastrous situation as only 1-node survives out of 3-node cluster,
// new members joins the existing cluster, and previous data from snapshot
// are still preserved after recovery process. As always, after recovery,
// each member must be able to process client requests.
Case_SIGQUIT_AND_REMOVE_QUORUM_AND_RESTORE_LEADER_SNAPSHOT_FROM_SCRATCH Case = 14
// BLACKHOLE_PEER_PORT_TX_RX_ONE_FOLLOWER drops all outgoing/incoming
// packets from/to the peer port on a randomly chosen follower
// (non-leader), and waits for "delay-ms" until recovery.
// The expected behavior is that once dropping operation is undone,
// each member must be able to process client requests.
Case_BLACKHOLE_PEER_PORT_TX_RX_ONE_FOLLOWER Case = 100
// BLACKHOLE_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT drops
// all outgoing/incoming packets from/to the peer port on a randomly
// chosen follower (non-leader), and waits for most up-to-date node
// (leader) applies the snapshot count of entries since the blackhole
// operation.
// The expected behavior is that once packet drop operation is undone,
// the slow follower tries to catch up, possibly receiving the snapshot
// from the active leader. As always, after recovery, each member must
// be able to process client requests.
Case_BLACKHOLE_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT Case = 101
// BLACKHOLE_PEER_PORT_TX_RX_LEADER drops all outgoing/incoming packets
// from/to the peer port on the active leader (isolated), and waits for
// "delay-ms" until recovery, in order to trigger election timeout.
// The expected behavior is that after election timeout, a new leader gets
// elected, and once dropping operation is undone, the old leader comes
// back and rejoins the cluster as a follower. As always, after recovery,
// each member must be able to process client requests.
Case_BLACKHOLE_PEER_PORT_TX_RX_LEADER Case = 102
// BLACKHOLE_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT drops all
// outgoing/incoming packets from/to the peer port on the active leader,
// and waits for most up-to-date node (leader) applies the snapshot
// count of entries since the blackhole operation.
// The expected behavior is that cluster elects a new leader, and once
// dropping operation is undone, the old leader comes back and rejoins
// the cluster as a follower. The slow follower tries to catch up, likely
// receiving the snapshot from the new active leader. As always, after
// recovery, each member must be able to process client requests.
Case_BLACKHOLE_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT Case = 103
// BLACKHOLE_PEER_PORT_TX_RX_QUORUM drops all outgoing/incoming packets
// from/to the peer ports on majority nodes of cluster, thus losing its
// leader and cluster being inoperable. And it waits for "delay-ms"
// until recovery.
// The expected behavior is that once packet drop operation is undone,
// nodes come back online, thus cluster comes back operative. As always,
// after recovery, each member must be able to process client requests.
Case_BLACKHOLE_PEER_PORT_TX_RX_QUORUM Case = 104
// BLACKHOLE_PEER_PORT_TX_RX_ALL drops all outgoing/incoming packets
// from/to the peer ports on all nodes, thus making cluster totally
// inoperable. It waits for "delay-ms" until recovery.
// The expected behavior is that once packet drop operation is undone,
// nodes come back online, thus cluster comes back operative. As always,
// after recovery, each member must be able to process client requests.
Case_BLACKHOLE_PEER_PORT_TX_RX_ALL Case = 105
// DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER delays outgoing/incoming packets
// from/to the peer port on a randomly chosen follower (non-leader).
// It waits for "delay-ms" until recovery.
// The expected behavior is that once packet delay operation is undone,
// the follower comes back and tries to catch up with latest changes from
// cluster. And as always, after recovery, each member must be able to
// process client requests.
Case_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER Case = 200
// RANDOM_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER delays outgoing/incoming
// packets from/to the peer port on a randomly chosen follower
// (non-leader) with a randomized time duration (thus isolated). It
// waits for "delay-ms" until recovery.
// The expected behavior is that once packet delay operation is undone,
// each member must be able to process client requests.
Case_RANDOM_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER Case = 201
// DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT delays
// outgoing/incoming packets from/to the peer port on a randomly chosen
// follower (non-leader), and waits for most up-to-date node (leader)
// applies the snapshot count of entries since the delay operation.
// The expected behavior is that the delayed follower gets isolated
// and behind the current active leader, and once delay operation is undone,
// the slow follower comes back and catches up possibly receiving snapshot
// from the active leader. As always, after recovery, each member must be
// able to process client requests.
Case_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT Case = 202
// RANDOM_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT delays
// outgoing/incoming packets from/to the peer port on a randomly chosen
// follower (non-leader) with a randomized time duration, and waits for
// most up-to-date node (leader) applies the snapshot count of entries
// since the delay operation.
// The expected behavior is that the delayed follower gets isolated
// and behind the current active leader, and once delay operation is undone,
// the slow follower comes back and catches up, possibly receiving a
// snapshot from the active leader. As always, after recovery, each member
// must be able to process client requests.
Case_RANDOM_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT Case = 203
// DELAY_PEER_PORT_TX_RX_LEADER delays outgoing/incoming packets from/to
// the peer port on the active leader. And waits for "delay-ms" until
// recovery.
// The expected behavior is that cluster may elect a new leader, and
// once packet delay operation is undone, the (old) leader comes back
// and tries to catch up with latest changes from cluster. As always,
// after recovery, each member must be able to process client requests.
Case_DELAY_PEER_PORT_TX_RX_LEADER Case = 204
// RANDOM_DELAY_PEER_PORT_TX_RX_LEADER delays outgoing/incoming packets
// from/to the peer port on the active leader with a randomized time
// duration. And waits for "delay-ms" until recovery.
// The expected behavior is that cluster may elect a new leader, and
// once packet delay operation is undone, the (old) leader comes back
// and tries to catch up with latest changes from cluster. As always,
// after recovery, each member must be able to process client requests.
Case_RANDOM_DELAY_PEER_PORT_TX_RX_LEADER Case = 205
// DELAY_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT delays
// outgoing/incoming packets from/to the peer port on the active leader,
// and waits for most up-to-date node (current or new leader) applies the
// snapshot count of entries since the delay operation.
// The expected behavior is that cluster may elect a new leader, and
// the old leader gets isolated and behind the current active leader,
// and once delay operation is undone, the slow follower comes back
// and catches up, likely receiving a snapshot from the active leader.
// As always, after recovery, each member must be able to process client
// requests.
Case_DELAY_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT Case = 206
// RANDOM_DELAY_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT delays
// outgoing/incoming packets from/to the peer port on the active leader,
// with a randomized time duration. And it waits for most up-to-date node
// (current or new leader) applies the snapshot count of entries since the
// delay operation.
// The expected behavior is that cluster may elect a new leader, and
// the old leader gets isolated and behind the current active leader,
// and once delay operation is undone, the slow follower comes back
// and catches up, likely receiving a snapshot from the active leader.
// As always, after recovery, each member must be able to process client
// requests.
Case_RANDOM_DELAY_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT Case = 207
// DELAY_PEER_PORT_TX_RX_QUORUM delays outgoing/incoming packets from/to
// the peer ports on majority nodes of cluster. And it waits for
// "delay-ms" until recovery, likely to trigger election timeouts.
// The expected behavior is that cluster may elect a new leader, while
// quorum of nodes struggle with slow networks, and once delay operation
// is undone, nodes come back and cluster comes back operative. As always,
// after recovery, each member must be able to process client requests.
Case_DELAY_PEER_PORT_TX_RX_QUORUM Case = 208
// RANDOM_DELAY_PEER_PORT_TX_RX_QUORUM delays outgoing/incoming packets
// from/to the peer ports on majority nodes of cluster, with randomized
// time durations. And it waits for "delay-ms" until recovery, likely
// to trigger election timeouts.
// The expected behavior is that cluster may elect a new leader, while
// quorum of nodes struggle with slow networks, and once delay operation
// is undone, nodes come back and cluster comes back operative. As always,
// after recovery, each member must be able to process client requests.
Case_RANDOM_DELAY_PEER_PORT_TX_RX_QUORUM Case = 209
// DELAY_PEER_PORT_TX_RX_ALL delays outgoing/incoming packets from/to the
// peer ports on all nodes. And it waits for "delay-ms" until recovery,
// likely to trigger election timeouts.
// The expected behavior is that cluster may become totally inoperable,
// struggling with slow networks across the whole cluster. Once delay
// operation is undone, nodes come back and cluster comes back operative.
// As always, after recovery, each member must be able to process client
// requests.
Case_DELAY_PEER_PORT_TX_RX_ALL Case = 210
// RANDOM_DELAY_PEER_PORT_TX_RX_ALL delays outgoing/incoming packets
// from/to the peer ports on all nodes, with randomized time durations.
// And it waits for "delay-ms" until recovery, likely to trigger
// election timeouts.
// The expected behavior is that cluster may become totally inoperable,
// struggling with slow networks across the whole cluster. Once delay
// operation is undone, nodes come back and cluster comes back operative.
// As always, after recovery, each member must be able to process client
// requests.
Case_RANDOM_DELAY_PEER_PORT_TX_RX_ALL Case = 211
// NO_FAIL_WITH_STRESS stops injecting failures while testing the
// consistency and correctness under pressure loads, for the duration of
// "delay-ms". Goal is to ensure cluster be still making progress
// on recovery, and verify system does not deadlock following a sequence
// of failure injections.
// The expected behavior is that cluster remains fully operative in healthy
// condition. As always, after recovery, each member must be able to process
// client requests.
Case_NO_FAIL_WITH_STRESS Case = 300
// NO_FAIL_WITH_NO_STRESS_FOR_LIVENESS neither injects failures nor
// sends stressig client requests to the cluster, for the duration of
// "delay-ms". Goal is to ensure cluster be still making progress
// on recovery, and verify system does not deadlock following a sequence
// of failure injections.
// The expected behavior is that cluster remains fully operative in healthy
// condition, and clients requests during liveness period succeed without
// errors.
// Note: this is how Google Chubby does failure injection testing
// https://static.googleusercontent.com/media/research.google.com/en//archive/paxos_made_live.pdf.
Case_NO_FAIL_WITH_NO_STRESS_FOR_LIVENESS Case = 301
// FAILPOINTS injects failpoints to etcd server runtime, triggering panics
// in critical code paths.
Case_FAILPOINTS Case = 400
// EXTERNAL runs external failure injection scripts.
Case_EXTERNAL Case = 500
)
var Case_name = map[int32]string{
0: "SIGTERM_ONE_FOLLOWER",
1: "SIGTERM_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT",
2: "SIGTERM_LEADER",
3: "SIGTERM_LEADER_UNTIL_TRIGGER_SNAPSHOT",
4: "SIGTERM_QUORUM",
5: "SIGTERM_ALL",
10: "SIGQUIT_AND_REMOVE_ONE_FOLLOWER",
11: "SIGQUIT_AND_REMOVE_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT",
12: "SIGQUIT_AND_REMOVE_LEADER",
13: "SIGQUIT_AND_REMOVE_LEADER_UNTIL_TRIGGER_SNAPSHOT",
14: "SIGQUIT_AND_REMOVE_QUORUM_AND_RESTORE_LEADER_SNAPSHOT_FROM_SCRATCH",
100: "BLACKHOLE_PEER_PORT_TX_RX_ONE_FOLLOWER",
101: "BLACKHOLE_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT",
102: "BLACKHOLE_PEER_PORT_TX_RX_LEADER",
103: "BLACKHOLE_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT",
104: "BLACKHOLE_PEER_PORT_TX_RX_QUORUM",
105: "BLACKHOLE_PEER_PORT_TX_RX_ALL",
200: "DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER",
201: "RANDOM_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER",
202: "DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT",
203: "RANDOM_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT",
204: "DELAY_PEER_PORT_TX_RX_LEADER",
205: "RANDOM_DELAY_PEER_PORT_TX_RX_LEADER",
206: "DELAY_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT",
207: "RANDOM_DELAY_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT",
208: "DELAY_PEER_PORT_TX_RX_QUORUM",
209: "RANDOM_DELAY_PEER_PORT_TX_RX_QUORUM",
210: "DELAY_PEER_PORT_TX_RX_ALL",
211: "RANDOM_DELAY_PEER_PORT_TX_RX_ALL",
300: "NO_FAIL_WITH_STRESS",
301: "NO_FAIL_WITH_NO_STRESS_FOR_LIVENESS",
400: "FAILPOINTS",
500: "EXTERNAL",
}
var Case_value = map[string]int32{
"SIGTERM_ONE_FOLLOWER": 0,
"SIGTERM_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT": 1,
"SIGTERM_LEADER": 2,
"SIGTERM_LEADER_UNTIL_TRIGGER_SNAPSHOT": 3,
"SIGTERM_QUORUM": 4,
"SIGTERM_ALL": 5,
"SIGQUIT_AND_REMOVE_ONE_FOLLOWER": 10,
"SIGQUIT_AND_REMOVE_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT": 11,
"SIGQUIT_AND_REMOVE_LEADER": 12,
"SIGQUIT_AND_REMOVE_LEADER_UNTIL_TRIGGER_SNAPSHOT": 13,
"SIGQUIT_AND_REMOVE_QUORUM_AND_RESTORE_LEADER_SNAPSHOT_FROM_SCRATCH": 14,
"BLACKHOLE_PEER_PORT_TX_RX_ONE_FOLLOWER": 100,
"BLACKHOLE_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT": 101,
"BLACKHOLE_PEER_PORT_TX_RX_LEADER": 102,
"BLACKHOLE_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT": 103,
"BLACKHOLE_PEER_PORT_TX_RX_QUORUM": 104,
"BLACKHOLE_PEER_PORT_TX_RX_ALL": 105,
"DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER": 200,
"RANDOM_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER": 201,
"DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT": 202,
"RANDOM_DELAY_PEER_PORT_TX_RX_ONE_FOLLOWER_UNTIL_TRIGGER_SNAPSHOT": 203,
"DELAY_PEER_PORT_TX_RX_LEADER": 204,
"RANDOM_DELAY_PEER_PORT_TX_RX_LEADER": 205,
"DELAY_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT": 206,
"RANDOM_DELAY_PEER_PORT_TX_RX_LEADER_UNTIL_TRIGGER_SNAPSHOT": 207,
"DELAY_PEER_PORT_TX_RX_QUORUM": 208,
"RANDOM_DELAY_PEER_PORT_TX_RX_QUORUM": 209,
"DELAY_PEER_PORT_TX_RX_ALL": 210,
"RANDOM_DELAY_PEER_PORT_TX_RX_ALL": 211,
"NO_FAIL_WITH_STRESS": 300,
"NO_FAIL_WITH_NO_STRESS_FOR_LIVENESS": 301,
"FAILPOINTS": 400,
"EXTERNAL": 500,
}
func (x Case) String() string {
return proto.EnumName(Case_name, int32(x))
}
func (Case) EnumDescriptor() ([]byte, []int) { return fileDescriptorRpc, []int{1} }
type Stresser int32
const (
Stresser_KV Stresser = 0
Stresser_LEASE Stresser = 1
Stresser_ELECTION_RUNNER Stresser = 2
Stresser_WATCH_RUNNER Stresser = 3
Stresser_LOCK_RACER_RUNNER Stresser = 4
Stresser_LEASE_RUNNER Stresser = 5
)
var Stresser_name = map[int32]string{
0: "KV",
1: "LEASE",
2: "ELECTION_RUNNER",
3: "WATCH_RUNNER",
4: "LOCK_RACER_RUNNER",
5: "LEASE_RUNNER",
}
var Stresser_value = map[string]int32{
"KV": 0,
"LEASE": 1,
"ELECTION_RUNNER": 2,
"WATCH_RUNNER": 3,
"LOCK_RACER_RUNNER": 4,
"LEASE_RUNNER": 5,
}
func (x Stresser) String() string {
return proto.EnumName(Stresser_name, int32(x))
}
func (Stresser) EnumDescriptor() ([]byte, []int) { return fileDescriptorRpc, []int{2} }
type Checker int32
const (
Checker_KV_HASH Checker = 0
Checker_LEASE_EXPIRE Checker = 1
Checker_RUNNER Checker = 2
Checker_NO_CHECK Checker = 3
)
var Checker_name = map[int32]string{
0: "KV_HASH",
1: "LEASE_EXPIRE",
2: "RUNNER",
3: "NO_CHECK",
}
var Checker_value = map[string]int32{
"KV_HASH": 0,
"LEASE_EXPIRE": 1,
"RUNNER": 2,
"NO_CHECK": 3,
}
func (x Checker) String() string {
return proto.EnumName(Checker_name, int32(x))
}
func (Checker) EnumDescriptor() ([]byte, []int) { return fileDescriptorRpc, []int{3} }
type Request struct {
Operation Operation `protobuf:"varint,1,opt,name=Operation,proto3,enum=rpcpb.Operation" json:"Operation,omitempty"`
// Member contains the same Member object from tester configuration.
Member *Member `protobuf:"bytes,2,opt,name=Member" json:"Member,omitempty"`
// Tester contains tester configuration.
Tester *Tester `protobuf:"bytes,3,opt,name=Tester" json:"Tester,omitempty"`
}
func (m *Request) Reset() { *m = Request{} }
func (m *Request) String() string { return proto.CompactTextString(m) }
func (*Request) ProtoMessage() {}
func (*Request) Descriptor() ([]byte, []int) { return fileDescriptorRpc, []int{0} }
// SnapshotInfo contains SAVE_SNAPSHOT request results.
type SnapshotInfo struct {
MemberName string `protobuf:"bytes,1,opt,name=MemberName,proto3" json:"MemberName,omitempty"`
MemberClientURLs []string `protobuf:"bytes,2,rep,name=MemberClientURLs" json:"MemberClientURLs,omitempty"`
SnapshotPath string `protobuf:"bytes,3,opt,name=SnapshotPath,proto3" json:"SnapshotPath,omitempty"`
SnapshotFileSize string `protobuf:"bytes,4,opt,name=SnapshotFileSize,proto3" json:"SnapshotFileSize,omitempty"`
SnapshotTotalSize string `protobuf:"bytes,5,opt,name=SnapshotTotalSize,proto3" json:"SnapshotTotalSize,omitempty"`
SnapshotTotalKey int64 `protobuf:"varint,6,opt,name=SnapshotTotalKey,proto3" json:"SnapshotTotalKey,omitempty"`
SnapshotHash int64 `protobuf:"varint,7,opt,name=SnapshotHash,proto3" json:"SnapshotHash,omitempty"`
SnapshotRevision int64 `protobuf:"varint,8,opt,name=SnapshotRevision,proto3" json:"SnapshotRevision,omitempty"`
Took string `protobuf:"bytes,9,opt,name=Took,proto3" json:"Took,omitempty"`
}
func (m *SnapshotInfo) Reset() { *m = SnapshotInfo{} }
func (m *SnapshotInfo) String() string { return proto.CompactTextString(m) }
func (*SnapshotInfo) ProtoMessage() {}
func (*SnapshotInfo) Descriptor() ([]byte, []int) { return fileDescriptorRpc, []int{1} }
type Response struct {
Success bool `protobuf:"varint,1,opt,name=Success,proto3" json:"Success,omitempty"`
Status string `protobuf:"bytes,2,opt,name=Status,proto3" json:"Status,omitempty"`
// Member contains the same Member object from tester request.
Member *Member `protobuf:"bytes,3,opt,name=Member" json:"Member,omitempty"`
// SnapshotInfo contains SAVE_SNAPSHOT request results.
SnapshotInfo *SnapshotInfo `protobuf:"bytes,4,opt,name=SnapshotInfo" json:"SnapshotInfo,omitempty"`
}
func (m *Response) Reset() { *m = Response{} }
func (m *Response) String() string { return proto.CompactTextString(m) }
func (*Response) ProtoMessage() {}
func (*Response) Descriptor() ([]byte, []int) { return fileDescriptorRpc, []int{2} }
type Member struct {
// EtcdExecPath is the executable etcd binary path in agent server.
EtcdExecPath string `protobuf:"bytes,1,opt,name=EtcdExecPath,proto3" json:"EtcdExecPath,omitempty" yaml:"etcd-exec-path"`
// AgentAddr is the agent HTTP server address.
AgentAddr string `protobuf:"bytes,11,opt,name=AgentAddr,proto3" json:"AgentAddr,omitempty" yaml:"agent-addr"`
// FailpointHTTPAddr is the agent's failpoints HTTP server address.
FailpointHTTPAddr string `protobuf:"bytes,12,opt,name=FailpointHTTPAddr,proto3" json:"FailpointHTTPAddr,omitempty" yaml:"failpoint-http-addr"`
// BaseDir is the base directory where all logs and etcd data are stored.
BaseDir string `protobuf:"bytes,101,opt,name=BaseDir,proto3" json:"BaseDir,omitempty" yaml:"base-dir"`
// EtcdLogPath is the log file to store current etcd server logs.
EtcdLogPath string `protobuf:"bytes,102,opt,name=EtcdLogPath,proto3" json:"EtcdLogPath,omitempty" yaml:"etcd-log-path"`
// EtcdClientProxy is true when client traffic needs to be proxied.
// If true, listen client URL port must be different than advertise client URL port.
EtcdClientProxy bool `protobuf:"varint,201,opt,name=EtcdClientProxy,proto3" json:"EtcdClientProxy,omitempty" yaml:"etcd-client-proxy"`
// EtcdPeerProxy is true when peer traffic needs to be proxied.
// If true, listen peer URL port must be different than advertise peer URL port.
EtcdPeerProxy bool `protobuf:"varint,202,opt,name=EtcdPeerProxy,proto3" json:"EtcdPeerProxy,omitempty" yaml:"etcd-peer-proxy"`
// EtcdClientEndpoint is the etcd client endpoint.
EtcdClientEndpoint string `protobuf:"bytes,301,opt,name=EtcdClientEndpoint,proto3" json:"EtcdClientEndpoint,omitempty" yaml:"etcd-client-endpoint"`
// Etcd defines etcd binary configuration flags.
Etcd *Etcd `protobuf:"bytes,302,opt,name=Etcd" json:"Etcd,omitempty" yaml:"etcd"`
// EtcdOnSnapshotRestore defines one-time use configuration during etcd
// snapshot recovery process.
EtcdOnSnapshotRestore *Etcd `protobuf:"bytes,303,opt,name=EtcdOnSnapshotRestore" json:"EtcdOnSnapshotRestore,omitempty"`
// ClientCertData contains cert file contents from this member's etcd server.
ClientCertData string `protobuf:"bytes,401,opt,name=ClientCertData,proto3" json:"ClientCertData,omitempty" yaml:"client-cert-data"`
ClientCertPath string `protobuf:"bytes,402,opt,name=ClientCertPath,proto3" json:"ClientCertPath,omitempty" yaml:"client-cert-path"`
// ClientKeyData contains key file contents from this member's etcd server.
ClientKeyData string `protobuf:"bytes,403,opt,name=ClientKeyData,proto3" json:"ClientKeyData,omitempty" yaml:"client-key-data"`
ClientKeyPath string `protobuf:"bytes,404,opt,name=ClientKeyPath,proto3" json:"ClientKeyPath,omitempty" yaml:"client-key-path"`
// ClientTrustedCAData contains trusted CA file contents from this member's etcd server.
ClientTrustedCAData string `protobuf:"bytes,405,opt,name=ClientTrustedCAData,proto3" json:"ClientTrustedCAData,omitempty" yaml:"client-trusted-ca-data"`
ClientTrustedCAPath string `protobuf:"bytes,406,opt,name=ClientTrustedCAPath,proto3" json:"ClientTrustedCAPath,omitempty" yaml:"client-trusted-ca-path"`
// PeerCertData contains cert file contents from this member's etcd server.
PeerCertData string `protobuf:"bytes,501,opt,name=PeerCertData,proto3" json:"PeerCertData,omitempty" yaml:"peer-cert-data"`
PeerCertPath string `protobuf:"bytes,502,opt,name=PeerCertPath,proto3" json:"PeerCertPath,omitempty" yaml:"peer-cert-path"`
// PeerKeyData contains key file contents from this member's etcd server.
PeerKeyData string `protobuf:"bytes,503,opt,name=PeerKeyData,proto3" json:"PeerKeyData,omitempty" yaml:"peer-key-data"`
PeerKeyPath string `protobuf:"bytes,504,opt,name=PeerKeyPath,proto3" json:"PeerKeyPath,omitempty" yaml:"peer-key-path"`
// PeerTrustedCAData contains trusted CA file contents from this member's etcd server.
PeerTrustedCAData string `protobuf:"bytes,505,opt,name=PeerTrustedCAData,proto3" json:"PeerTrustedCAData,omitempty" yaml:"peer-trusted-ca-data"`
PeerTrustedCAPath string `protobuf:"bytes,506,opt,name=PeerTrustedCAPath,proto3" json:"PeerTrustedCAPath,omitempty" yaml:"peer-trusted-ca-path"`
// SnapshotPath is the snapshot file path to store or restore from.
SnapshotPath string `protobuf:"bytes,601,opt,name=SnapshotPath,proto3" json:"SnapshotPath,omitempty" yaml:"snapshot-path"`
// SnapshotInfo contains last SAVE_SNAPSHOT request results.
SnapshotInfo *SnapshotInfo `protobuf:"bytes,602,opt,name=SnapshotInfo" json:"SnapshotInfo,omitempty"`
}
func (m *Member) Reset() { *m = Member{} }
func (m *Member) String() string { return proto.CompactTextString(m) }
func (*Member) ProtoMessage() {}
func (*Member) Descriptor() ([]byte, []int) { return fileDescriptorRpc, []int{3} }
type Tester struct {
DataDir string `protobuf:"bytes,1,opt,name=DataDir,proto3" json:"DataDir,omitempty" yaml:"data-dir"`
Network string `protobuf:"bytes,2,opt,name=Network,proto3" json:"Network,omitempty" yaml:"network"`
Addr string `protobuf:"bytes,3,opt,name=Addr,proto3" json:"Addr,omitempty" yaml:"addr"`
// DelayLatencyMsRv is the delay latency in milliseconds,
// to inject to simulated slow network.
DelayLatencyMs uint32 `protobuf:"varint,11,opt,name=DelayLatencyMs,proto3" json:"DelayLatencyMs,omitempty" yaml:"delay-latency-ms"`
// DelayLatencyMsRv is the delay latency random variable in milliseconds.
DelayLatencyMsRv uint32 `protobuf:"varint,12,opt,name=DelayLatencyMsRv,proto3" json:"DelayLatencyMsRv,omitempty" yaml:"delay-latency-ms-rv"`
// UpdatedDelayLatencyMs is the update delay latency in milliseconds,
// to inject to simulated slow network. It's the final latency to apply,
// in case the latency numbers are randomly generated from given delay latency field.
UpdatedDelayLatencyMs uint32 `protobuf:"varint,13,opt,name=UpdatedDelayLatencyMs,proto3" json:"UpdatedDelayLatencyMs,omitempty" yaml:"updated-delay-latency-ms"`
// RoundLimit is the limit of rounds to run failure set (-1 to run without limits).
RoundLimit int32 `protobuf:"varint,21,opt,name=RoundLimit,proto3" json:"RoundLimit,omitempty" yaml:"round-limit"`
// ExitOnCaseFail is true, then exit tester on first failure.
ExitOnCaseFail bool `protobuf:"varint,22,opt,name=ExitOnCaseFail,proto3" json:"ExitOnCaseFail,omitempty" yaml:"exit-on-failure"`
// EnablePprof is true to enable profiler.
EnablePprof bool `protobuf:"varint,23,opt,name=EnablePprof,proto3" json:"EnablePprof,omitempty" yaml:"enable-pprof"`
// CaseDelayMs is the delay duration after failure is injected.
// Useful when triggering snapshot or no-op failure cases.
CaseDelayMs uint32 `protobuf:"varint,31,opt,name=CaseDelayMs,proto3" json:"CaseDelayMs,omitempty" yaml:"case-delay-ms"`
// CaseShuffle is true to randomize failure injecting order.
CaseShuffle bool `protobuf:"varint,32,opt,name=CaseShuffle,proto3" json:"CaseShuffle,omitempty" yaml:"case-shuffle"`
// Cases is the selected test cases to schedule.
// If empty, run all failure cases.
Cases []string `protobuf:"bytes,33,rep,name=Cases" json:"Cases,omitempty" yaml:"cases"`
// FailpointCommands is the list of "gofail" commands
// (e.g. panic("etcd-tester"),1*sleep(1000).
FailpointCommands []string `protobuf:"bytes,34,rep,name=FailpointCommands" json:"FailpointCommands,omitempty" yaml:"failpoint-commands"`
// RunnerExecPath is a path of etcd-runner binary.
RunnerExecPath string `protobuf:"bytes,41,opt,name=RunnerExecPath,proto3" json:"RunnerExecPath,omitempty" yaml:"runner-exec-path"`
// ExternalExecPath is a path of script for enabling/disabling an external fault injector.
ExternalExecPath string `protobuf:"bytes,42,opt,name=ExternalExecPath,proto3" json:"ExternalExecPath,omitempty" yaml:"external-exec-path"`
// Stressers is the list of stresser types:
// KV, LEASE, ELECTION_RUNNER, WATCH_RUNNER, LOCK_RACER_RUNNER, LEASE_RUNNER.
Stressers []string `protobuf:"bytes,101,rep,name=Stressers" json:"Stressers,omitempty" yaml:"stressers"`
// Checkers is the list of consistency checker types:
// KV_HASH, LEASE_EXPIRE, NO_CHECK, RUNNER.
// Leave empty to skip consistency checks.
Checkers []string `protobuf:"bytes,102,rep,name=Checkers" json:"Checkers,omitempty" yaml:"checkers"`
// StressKeySize is the size of each small key written into etcd.
StressKeySize int32 `protobuf:"varint,201,opt,name=StressKeySize,proto3" json:"StressKeySize,omitempty" yaml:"stress-key-size"`
// StressKeySizeLarge is the size of each large key written into etcd.
StressKeySizeLarge int32 `protobuf:"varint,202,opt,name=StressKeySizeLarge,proto3" json:"StressKeySizeLarge,omitempty" yaml:"stress-key-size-large"`
// StressKeySuffixRange is the count of key range written into etcd.
// Stress keys are created with "fmt.Sprintf("foo%016x", rand.Intn(keySuffixRange)".
StressKeySuffixRange int32 `protobuf:"varint,203,opt,name=StressKeySuffixRange,proto3" json:"StressKeySuffixRange,omitempty" yaml:"stress-key-suffix-range"`
// StressKeySuffixRangeTxn is the count of key range written into etcd txn (max 100).
// Stress keys are created with "fmt.Sprintf("/k%03d", i)".
StressKeySuffixRangeTxn int32 `protobuf:"varint,204,opt,name=StressKeySuffixRangeTxn,proto3" json:"StressKeySuffixRangeTxn,omitempty" yaml:"stress-key-suffix-range-txn"`
// StressKeyTxnOps is the number of operations per a transaction (max 64).
StressKeyTxnOps int32 `protobuf:"varint,205,opt,name=StressKeyTxnOps,proto3" json:"StressKeyTxnOps,omitempty" yaml:"stress-key-txn-ops"`
// StressClients is the number of concurrent stressing clients
// with "one" shared TCP connection.
StressClients int32 `protobuf:"varint,301,opt,name=StressClients,proto3" json:"StressClients,omitempty" yaml:"stress-clients"`
// StressQPS is the maximum number of stresser requests per second.
StressQPS int32 `protobuf:"varint,302,opt,name=StressQPS,proto3" json:"StressQPS,omitempty" yaml:"stress-qps"`
}
func (m *Tester) Reset() { *m = Tester{} }
func (m *Tester) String() string { return proto.CompactTextString(m) }
func (*Tester) ProtoMessage() {}
func (*Tester) Descriptor() ([]byte, []int) { return fileDescriptorRpc, []int{4} }
type Etcd struct {
Name string `protobuf:"bytes,1,opt,name=Name,proto3" json:"Name,omitempty" yaml:"name"`
DataDir string `protobuf:"bytes,2,opt,name=DataDir,proto3" json:"DataDir,omitempty" yaml:"data-dir"`
WALDir string `protobuf:"bytes,3,opt,name=WALDir,proto3" json:"WALDir,omitempty" yaml:"wal-dir"`
// HeartbeatIntervalMs is the time (in milliseconds) of a heartbeat interval.
// Default value is 100, which is 100ms.
HeartbeatIntervalMs int64 `protobuf:"varint,11,opt,name=HeartbeatIntervalMs,proto3" json:"HeartbeatIntervalMs,omitempty" yaml:"heartbeat-interval"`
// ElectionTimeoutMs is the time (in milliseconds) for an election to timeout.
// Default value is 1000, which is 1s.
ElectionTimeoutMs int64 `protobuf:"varint,12,opt,name=ElectionTimeoutMs,proto3" json:"ElectionTimeoutMs,omitempty" yaml:"election-timeout"`
ListenClientURLs []string `protobuf:"bytes,21,rep,name=ListenClientURLs" json:"ListenClientURLs,omitempty" yaml:"listen-client-urls"`
AdvertiseClientURLs []string `protobuf:"bytes,22,rep,name=AdvertiseClientURLs" json:"AdvertiseClientURLs,omitempty" yaml:"advertise-client-urls"`
ClientAutoTLS bool `protobuf:"varint,23,opt,name=ClientAutoTLS,proto3" json:"ClientAutoTLS,omitempty" yaml:"auto-tls"`
ClientCertAuth bool `protobuf:"varint,24,opt,name=ClientCertAuth,proto3" json:"ClientCertAuth,omitempty" yaml:"client-cert-auth"`
ClientCertFile string `protobuf:"bytes,25,opt,name=ClientCertFile,proto3" json:"ClientCertFile,omitempty" yaml:"cert-file"`
ClientKeyFile string `protobuf:"bytes,26,opt,name=ClientKeyFile,proto3" json:"ClientKeyFile,omitempty" yaml:"key-file"`
ClientTrustedCAFile string `protobuf:"bytes,27,opt,name=ClientTrustedCAFile,proto3" json:"ClientTrustedCAFile,omitempty" yaml:"trusted-ca-file"`
ListenPeerURLs []string `protobuf:"bytes,31,rep,name=ListenPeerURLs" json:"ListenPeerURLs,omitempty" yaml:"listen-peer-urls"`
AdvertisePeerURLs []string `protobuf:"bytes,32,rep,name=AdvertisePeerURLs" json:"AdvertisePeerURLs,omitempty" yaml:"initial-advertise-peer-urls"`
PeerAutoTLS bool `protobuf:"varint,33,opt,name=PeerAutoTLS,proto3" json:"PeerAutoTLS,omitempty" yaml:"peer-auto-tls"`
PeerClientCertAuth bool `protobuf:"varint,34,opt,name=PeerClientCertAuth,proto3" json:"PeerClientCertAuth,omitempty" yaml:"peer-client-cert-auth"`
PeerCertFile string `protobuf:"bytes,35,opt,name=PeerCertFile,proto3" json:"PeerCertFile,omitempty" yaml:"peer-cert-file"`
PeerKeyFile string `protobuf:"bytes,36,opt,name=PeerKeyFile,proto3" json:"PeerKeyFile,omitempty" yaml:"peer-key-file"`
PeerTrustedCAFile string `protobuf:"bytes,37,opt,name=PeerTrustedCAFile,proto3" json:"PeerTrustedCAFile,omitempty" yaml:"peer-trusted-ca-file"`
InitialCluster string `protobuf:"bytes,41,opt,name=InitialCluster,proto3" json:"InitialCluster,omitempty" yaml:"initial-cluster"`
InitialClusterState string `protobuf:"bytes,42,opt,name=InitialClusterState,proto3" json:"InitialClusterState,omitempty" yaml:"initial-cluster-state"`
InitialClusterToken string `protobuf:"bytes,43,opt,name=InitialClusterToken,proto3" json:"InitialClusterToken,omitempty" yaml:"initial-cluster-token"`
SnapshotCount int64 `protobuf:"varint,51,opt,name=SnapshotCount,proto3" json:"SnapshotCount,omitempty" yaml:"snapshot-count"`
QuotaBackendBytes int64 `protobuf:"varint,52,opt,name=QuotaBackendBytes,proto3" json:"QuotaBackendBytes,omitempty" yaml:"quota-backend-bytes"`
PreVote bool `protobuf:"varint,63,opt,name=PreVote,proto3" json:"PreVote,omitempty" yaml:"pre-vote"`
InitialCorruptCheck bool `protobuf:"varint,64,opt,name=InitialCorruptCheck,proto3" json:"InitialCorruptCheck,omitempty" yaml:"initial-corrupt-check"`
}
func (m *Etcd) Reset() { *m = Etcd{} }
func (m *Etcd) String() string { return proto.CompactTextString(m) }
func (*Etcd) ProtoMessage() {}
func (*Etcd) Descriptor() ([]byte, []int) { return fileDescriptorRpc, []int{5} }
func init() {
proto.RegisterType((*Request)(nil), "rpcpb.Request")
proto.RegisterType((*SnapshotInfo)(nil), "rpcpb.SnapshotInfo")
proto.RegisterType((*Response)(nil), "rpcpb.Response")
proto.RegisterType((*Member)(nil), "rpcpb.Member")
proto.RegisterType((*Tester)(nil), "rpcpb.Tester")
proto.RegisterType((*Etcd)(nil), "rpcpb.Etcd")
proto.RegisterEnum("rpcpb.Operation", Operation_name, Operation_value)
proto.RegisterEnum("rpcpb.Case", Case_name, Case_value)
proto.RegisterEnum("rpcpb.Stresser", Stresser_name, Stresser_value)
proto.RegisterEnum("rpcpb.Checker", Checker_name, Checker_value)
}
// Reference imports to suppress errors if they are not otherwise used.
var _ context.Context
var _ grpc.ClientConn
// This is a compile-time assertion to ensure that this generated file
// is compatible with the grpc package it is being compiled against.
const _ = grpc.SupportPackageIsVersion4
// Client API for Transport service
type TransportClient interface {
Transport(ctx context.Context, opts ...grpc.CallOption) (Transport_TransportClient, error)
}
type transportClient struct {
cc *grpc.ClientConn
}
func NewTransportClient(cc *grpc.ClientConn) TransportClient {
return &transportClient{cc}
}
func (c *transportClient) Transport(ctx context.Context, opts ...grpc.CallOption) (Transport_TransportClient, error) {
stream, err := grpc.NewClientStream(ctx, &_Transport_serviceDesc.Streams[0], c.cc, "/rpcpb.Transport/Transport", opts...)
if err != nil {
return nil, err
}
x := &transportTransportClient{stream}
return x, nil
}
type Transport_TransportClient interface {
Send(*Request) error
Recv() (*Response, error)
grpc.ClientStream
}
type transportTransportClient struct {
grpc.ClientStream
}
func (x *transportTransportClient) Send(m *Request) error {
return x.ClientStream.SendMsg(m)
}
func (x *transportTransportClient) Recv() (*Response, error) {
m := new(Response)
if err := x.ClientStream.RecvMsg(m); err != nil {
return nil, err
}
return m, nil
}
// Server API for Transport service
type TransportServer interface {
Transport(Transport_TransportServer) error
}
func RegisterTransportServer(s *grpc.Server, srv TransportServer) {
s.RegisterService(&_Transport_serviceDesc, srv)
}
func _Transport_Transport_Handler(srv interface{}, stream grpc.ServerStream) error {
return srv.(TransportServer).Transport(&transportTransportServer{stream})
}
type Transport_TransportServer interface {
Send(*Response) error
Recv() (*Request, error)
grpc.ServerStream
}
type transportTransportServer struct {
grpc.ServerStream
}
func (x *transportTransportServer) Send(m *Response) error {
return x.ServerStream.SendMsg(m)
}
func (x *transportTransportServer) Recv() (*Request, error) {
m := new(Request)
if err := x.ServerStream.RecvMsg(m); err != nil {
return nil, err
}
return m, nil
}
var _Transport_serviceDesc = grpc.ServiceDesc{
ServiceName: "rpcpb.Transport",
HandlerType: (*TransportServer)(nil),
Methods: []grpc.MethodDesc{},
Streams: []grpc.StreamDesc{
{
StreamName: "Transport",
Handler: _Transport_Transport_Handler,
ServerStreams: true,
ClientStreams: true,
},
},
Metadata: "rpcpb/rpc.proto",
}
func (m *Request) Marshal() (dAtA []byte, err error) {
size := m.Size()
dAtA = make([]byte, size)
n, err := m.MarshalTo(dAtA)
if err != nil {
return nil, err
}
return dAtA[:n], nil
}
func (m *Request) MarshalTo(dAtA []byte) (int, error) {
var i int
_ = i
var l int
_ = l
if m.Operation != 0 {
dAtA[i] = 0x8
i++
i = encodeVarintRpc(dAtA, i, uint64(m.Operation))
}
if m.Member != nil {
dAtA[i] = 0x12
i++
i = encodeVarintRpc(dAtA, i, uint64(m.Member.Size()))
n1, err := m.Member.MarshalTo(dAtA[i:])
if err != nil {
return 0, err
}
i += n1
}
if m.Tester != nil {
dAtA[i] = 0x1a
i++
i = encodeVarintRpc(dAtA, i, uint64(m.Tester.Size()))
n2, err := m.Tester.MarshalTo(dAtA[i:])
if err != nil {
return 0, err
}
i += n2
}
return i, nil
}
func (m *SnapshotInfo) Marshal() (dAtA []byte, err error) {
size := m.Size()
dAtA = make([]byte, size)
n, err := m.MarshalTo(dAtA)
if err != nil {
return nil, err
}
return dAtA[:n], nil
}
func (m *SnapshotInfo) MarshalTo(dAtA []byte) (int, error) {
var i int
_ = i
var l int
_ = l
if len(m.MemberName) > 0 {
dAtA[i] = 0xa
i++
i = encodeVarintRpc(dAtA, i, uint64(len(m.MemberName)))
i += copy(dAtA[i:], m.MemberName)
}
if len(m.MemberClientURLs) > 0 {
for _, s := range m.MemberClientURLs {
dAtA[i] = 0x12
i++
l = len(s)
for l >= 1<<7 {
dAtA[i] = uint8(uint64(l)&0x7f | 0x80)
l >>= 7
i++
}
dAtA[i] = uint8(l)
i++
i += copy(dAtA[i:], s)
}
}
if len(m.SnapshotPath) > 0 {
dAtA[i] = 0x1a
i++
i = encodeVarintRpc(dAtA, i, uint64(len(m.SnapshotPath)))
i += copy(dAtA[i:], m.SnapshotPath)
}
if len(m.SnapshotFileSize) > 0 {
dAtA[i] = 0x22
i++
i = encodeVarintRpc(dAtA, i, uint64(len(m.SnapshotFileSize)))
i += copy(dAtA[i:], m.SnapshotFileSize)
}
if len(m.SnapshotTotalSize) > 0 {
dAtA[i] = 0x2a
i++
i = encodeVarintRpc(dAtA, i, uint64(len(m.SnapshotTotalSize)))
i += copy(dAtA[i:], m.SnapshotTotalSize)
}
if m.SnapshotTotalKey != 0 {
dAtA[i] = 0x30
i++
i = encodeVarintRpc(dAtA, i, uint64(m.SnapshotTotalKey))
}
if m.SnapshotHash != 0 {
dAtA[i] = 0x38
i++
i = encodeVarintRpc(dAtA, i, uint64(m.SnapshotHash))
}
if m.SnapshotRevision != 0 {
dAtA[i] = 0x40
i++
i = encodeVarintRpc(dAtA, i, uint64(m.SnapshotRevision))
}
if len(m.Took) > 0 {