move protobuf from GreptimeDB (#1)

* move protobuf from GreptimeDB

* add license check

* add other github actions
This commit is contained in:
LFC
2023-02-09 14:59:48 +08:00
committed by GitHub
parent 39fa4e3c28
commit 6fadcf8c7a
22 changed files with 1326 additions and 0 deletions
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syntax = "proto3";
package greptime.v1;
message Column {
string column_name = 1;
enum SemanticType {
TAG = 0;
FIELD = 1;
TIMESTAMP = 2;
}
SemanticType semantic_type = 2;
message Values {
repeated int32 i8_values = 1;
repeated int32 i16_values = 2;
repeated int32 i32_values = 3;
repeated int64 i64_values = 4;
repeated uint32 u8_values = 5;
repeated uint32 u16_values = 6;
repeated uint32 u32_values = 7;
repeated uint64 u64_values = 8;
repeated float f32_values = 9;
repeated double f64_values = 10;
repeated bool bool_values = 11;
repeated bytes binary_values = 12;
repeated string string_values = 13;
repeated int32 date_values = 14;
repeated int64 datetime_values = 15;
repeated int64 ts_second_values = 16;
repeated int64 ts_millisecond_values = 17;
repeated int64 ts_microsecond_values = 18;
repeated int64 ts_nanosecond_values = 19;
}
// The array of non-null values in this column.
//
// For example: suppose there is a column "foo" that contains some int32 values (1, 2, 3, 4, 5, null, 7, 8, 9, null);
// column:
// column_name: foo
// semantic_type: Tag
// values: 1, 2, 3, 4, 5, 7, 8, 9
// null_masks: 00100000 00000010
Values values = 3;
// Mask maps the positions of null values.
// If a bit in null_mask is 1, it indicates that the column value at that position is null.
bytes null_mask = 4;
// Helpful in creating vector from column.
ColumnDataType datatype = 5;
}
message ColumnDef {
string name = 1;
ColumnDataType datatype = 2;
bool is_nullable = 3;
bytes default_constraint = 4;
}
enum ColumnDataType {
BOOLEAN = 0;
INT8 = 1;
INT16 = 2;
INT32 = 3;
INT64 = 4;
UINT8 = 5;
UINT16 = 6;
UINT32 = 7;
UINT64 = 8;
FLOAT32 = 9;
FLOAT64 = 10;
BINARY = 11;
STRING = 12;
DATE = 13;
DATETIME = 14;
TIMESTAMP_SECOND = 15;
TIMESTAMP_MILLISECOND = 16;
TIMESTAMP_MICROSECOND = 17;
TIMESTAMP_NANOSECOND = 18;
}
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syntax = "proto3";
package greptime.v1;
import "greptime/v1/ddl.proto";
import "greptime/v1/column.proto";
message RequestHeader {
// The `catalog` that is selected to be used in this request.
string catalog = 1;
// The `schema` that is selected to be used in this request.
string schema = 2;
}
message GreptimeRequest {
RequestHeader header = 1;
oneof request {
InsertRequest insert = 2;
QueryRequest query = 3;
DdlRequest ddl = 4;
}
}
message QueryRequest {
oneof query {
string sql = 1;
bytes logical_plan = 2;
}
}
message InsertRequest {
string table_name = 1;
// Data is represented here.
repeated Column columns = 3;
// The row_count of all columns, which include null and non-null values.
//
// Note: the row_count of all columns in a InsertRequest must be same.
uint32 row_count = 4;
// The region number of current insert request.
uint32 region_number = 5;
}
message AffectedRows {
uint32 value = 1;
}
message FlightMetadata {
AffectedRows affected_rows = 1;
}
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syntax = "proto3";
package greptime.v1;
import "greptime/v1/column.proto";
// "Data Definition Language" requests, that create, modify or delete the database structures but not the data.
// `DdlRequest` could carry more information than plain SQL, for example, the "table_id" in `CreateTableExpr`.
// So create a new DDL expr if you need it.
message DdlRequest {
oneof expr {
CreateDatabaseExpr create_database = 1;
CreateTableExpr create_table = 2;
AlterExpr alter = 3;
DropTableExpr drop_table = 4;
}
}
message CreateTableExpr {
string catalog_name = 1;
string schema_name = 2;
string table_name = 3;
string desc = 4;
repeated ColumnDef column_defs = 5;
string time_index = 6;
repeated string primary_keys = 7;
bool create_if_not_exists = 8;
map<string, string> table_options = 9;
TableId table_id = 10;
repeated uint32 region_ids = 11;
}
message AlterExpr {
string catalog_name = 1;
string schema_name = 2;
string table_name = 3;
oneof kind {
AddColumns add_columns = 4;
DropColumns drop_columns = 5;
RenameTable rename_table = 6;
}
}
message DropTableExpr {
string catalog_name = 1;
string schema_name = 2;
string table_name = 3;
}
message CreateDatabaseExpr {
//TODO(hl): maybe rename to schema_name?
string database_name = 1;
bool create_if_not_exists = 2;
}
message AddColumns {
repeated AddColumn add_columns = 1;
}
message DropColumns {
repeated DropColumn drop_columns = 1;
}
message RenameTable {
string new_table_name = 1;
}
message AddColumn {
ColumnDef column_def = 1;
bool is_key = 2;
}
message DropColumn {
string name = 1;
}
message TableId {
uint32 id = 1;
}
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syntax = "proto3";
package greptime.v1.meta;
import "greptime/v1/meta/common.proto";
import "greptime/v1/meta/store.proto";
// Cluster service is used for communication between meta nodes.
service Cluster {
// Batch get kvs by input keys from leader's in_memory kv store.
rpc BatchGet(BatchGetRequest) returns (BatchGetResponse);
// Range get the kvs from leader's in_memory kv store.
rpc Range(RangeRequest) returns (RangeResponse);
}
message BatchGetRequest {
RequestHeader header = 1;
repeated bytes keys = 2;
}
message BatchGetResponse {
ResponseHeader header = 1;
repeated KeyValue kvs = 2;
}
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syntax = "proto3";
package greptime.v1.meta;
message RequestHeader {
uint64 protocol_version = 1;
// cluster_id is the ID of the cluster which be sent to.
uint64 cluster_id = 2;
// member_id is the ID of the sender server.
uint64 member_id = 3;
}
message ResponseHeader {
uint64 protocol_version = 1;
// cluster_id is the ID of the cluster which sent the response.
uint64 cluster_id = 2;
Error error = 3;
}
message Error {
int32 code = 1;
string err_msg = 2;
}
message Peer {
uint64 id = 1;
string addr = 2;
}
message TableName {
string catalog_name = 1;
string schema_name = 2;
string table_name = 3;
}
message TimeInterval {
// The unix timestamp in millis of the start of this period.
uint64 start_timestamp_millis = 1;
// The unix timestamp in millis of the end of this period.
uint64 end_timestamp_millis = 2;
}
message KeyValue {
// key is the key in bytes. An empty key is not allowed.
bytes key = 1;
// value is the value held by the key, in bytes.
bytes value = 2;
}
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syntax = "proto3";
package greptime.v1.meta;
import "greptime/v1/meta/common.proto";
service Heartbeat {
// Heartbeat, there may be many contents of the heartbeat, such as:
// 1. Metadata to be registered to meta server and discoverable by other nodes.
// 2. Some performance metrics, such as Load, CPU usage, etc.
// 3. The number of computing tasks being executed.
rpc Heartbeat(stream HeartbeatRequest) returns (stream HeartbeatResponse) {}
// Ask leader's endpoint.
rpc AskLeader(AskLeaderRequest) returns (AskLeaderResponse) {}
}
message HeartbeatRequest {
RequestHeader header = 1;
// Self peer
Peer peer = 2;
// Leader node
bool is_leader = 3;
// Actually reported time interval
TimeInterval report_interval = 4;
// Node stat
NodeStat node_stat = 5;
// Region stats on this node
repeated RegionStat region_stats = 6;
// Follower nodes and stats, empty on follower nodes
repeated ReplicaStat replica_stats = 7;
}
message NodeStat {
// The read capacity units during this period
int64 rcus = 1;
// The write capacity units during this period
int64 wcus = 2;
// How many tables on this node
int64 table_num = 3;
// How many regions on this node
int64 region_num = 4;
double cpu_usage = 5;
double load = 6;
// Read disk IO on this node
double read_io_rate = 7;
// Write disk IO on this node
double write_io_rate = 8;
// Others
map<string, string> attrs = 100;
}
message RegionStat {
uint64 region_id = 1;
TableName table_name = 2;
// The read capacity units during this period
int64 rcus = 3;
// The write capacity units during this period
int64 wcus = 4;
// Approximate bytes of this region
int64 approximate_bytes = 5;
// Approximate number of rows in this region
int64 approximate_rows = 6;
// Others
map<string, string> attrs = 100;
}
message ReplicaStat {
Peer peer = 1;
bool in_sync = 2;
bool is_learner = 3;
}
message HeartbeatResponse {
ResponseHeader header = 1;
repeated bytes payload = 2;
}
message AskLeaderRequest {
RequestHeader header = 1;
}
message AskLeaderResponse {
ResponseHeader header = 1;
Peer leader = 2;
}
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syntax = "proto3";
package greptime.v1.meta;
import "greptime/v1/meta/common.proto";
service Router {
rpc Create(CreateRequest) returns (RouteResponse) {}
// Fetch routing information for tables. The smallest unit is the complete
// routing information(all regions) of a table.
//
// ```text
// table_1
// table_name
// table_schema
// regions
// region_1
// leader_peer
// follower_peer_1, follower_peer_2
// region_2
// leader_peer
// follower_peer_1, follower_peer_2, follower_peer_3
// region_xxx
// table_2
// ...
// ```
//
rpc Route(RouteRequest) returns (RouteResponse) {}
rpc Delete(DeleteRequest) returns (RouteResponse) {}
}
message CreateRequest {
RequestHeader header = 1;
TableName table_name = 2;
repeated Partition partitions = 3;
bytes table_info = 4;
}
message RouteRequest {
RequestHeader header = 1;
repeated TableName table_names = 2;
}
message DeleteRequest {
RequestHeader header = 1;
TableName table_name = 2;
}
message RouteResponse {
ResponseHeader header = 1;
repeated Peer peers = 2;
repeated TableRoute table_routes = 3;
}
message TableRoute {
Table table = 1;
repeated RegionRoute region_routes = 2;
}
message RegionRoute {
Region region = 1;
// single leader node for write task
uint64 leader_peer_index = 2;
// multiple follower nodes for read task
repeated uint64 follower_peer_indexes = 3;
}
message Table {
uint64 id = 1;
TableName table_name = 2;
bytes table_schema = 3;
}
message Region {
// TODO(LFC): Maybe use message RegionNumber?
uint64 id = 1;
string name = 2;
Partition partition = 3;
map<string, string> attrs = 100;
}
// PARTITION `region_name` VALUES LESS THAN (value_list)
message Partition {
repeated bytes column_list = 1;
repeated bytes value_list = 2;
}
// This message is only for saving into store.
message TableRouteValue {
repeated Peer peers = 1;
TableRoute table_route = 2;
}
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syntax = "proto3";
package greptime.v1.meta;
import "greptime/v1/meta/common.proto";
service Store {
// Range gets the keys in the range from the key-value store.
rpc Range(RangeRequest) returns (RangeResponse);
// Put puts the given key into the key-value store.
rpc Put(PutRequest) returns (PutResponse);
// BatchPut atomically puts the given keys into the key-value store.
rpc BatchPut(BatchPutRequest) returns (BatchPutResponse);
// CompareAndPut atomically puts the value to the given updated
// value if the current value == the expected value.
rpc CompareAndPut(CompareAndPutRequest) returns (CompareAndPutResponse);
// DeleteRange deletes the given range from the key-value store.
rpc DeleteRange(DeleteRangeRequest) returns (DeleteRangeResponse);
// MoveValue atomically renames the key to the given updated key.
rpc MoveValue(MoveValueRequest) returns (MoveValueResponse);
}
message RangeRequest {
RequestHeader header = 1;
// key is the first key for the range, If range_end is not given, the
// request only looks up key.
bytes key = 2;
// range_end is the upper bound on the requested range [key, range_end).
// If range_end is '\0', the range is all keys >= key.
// If range_end is key plus one (e.g., "aa"+1 == "ab", "a\xff"+1 == "b"),
// then the range request gets all keys prefixed with key.
// If both key and range_end are '\0', then the range request returns all
// keys.
bytes range_end = 3;
// limit is a limit on the number of keys returned for the request. When
// limit is set to 0, it is treated as no limit.
int64 limit = 4;
// keys_only when set returns only the keys and not the values.
bool keys_only = 5;
}
message RangeResponse {
ResponseHeader header = 1;
// kvs is the list of key-value pairs matched by the range request.
repeated KeyValue kvs = 2;
// more indicates if there are more keys to return in the requested range.
bool more = 3;
}
message PutRequest {
RequestHeader header = 1;
// key is the key, in bytes, to put into the key-value store.
bytes key = 2;
// value is the value, in bytes, to associate with the key in the
// key-value store.
bytes value = 3;
// If prev_kv is set, gets the previous key-value pair before changing it.
// The previous key-value pair will be returned in the put response.
bool prev_kv = 4;
}
message PutResponse {
ResponseHeader header = 1;
// If prev_kv is set in the request, the previous key-value pair will be
// returned.
KeyValue prev_kv = 2;
}
message BatchPutRequest {
RequestHeader header = 1;
repeated KeyValue kvs = 2;
// If prev_kv is set, gets the previous key-value pairs before changing it.
// The previous key-value pairs will be returned in the batch put response.
bool prev_kv = 3;
}
message BatchPutResponse {
ResponseHeader header = 1;
// If prev_kv is set in the request, the previous key-value pairs will be
// returned.
repeated KeyValue prev_kvs = 2;
}
message CompareAndPutRequest {
RequestHeader header = 1;
// key is the key, in bytes, to put into the key-value store.
bytes key = 2;
// expect is the previous value, in bytes
bytes expect = 3;
// value is the value, in bytes, to associate with the key in the
// key-value store.
bytes value = 4;
}
message CompareAndPutResponse {
ResponseHeader header = 1;
bool success = 2;
KeyValue prev_kv = 3;
}
message DeleteRangeRequest {
RequestHeader header = 1;
// key is the first key to delete in the range.
bytes key = 2;
// range_end is the key following the last key to delete for the range
// [key, range_end).
// If range_end is not given, the range is defined to contain only the key
// argument.
// If range_end is one bit larger than the given key, then the range is all
// the keys with the prefix (the given key).
// If range_end is '\0', the range is all keys greater than or equal to the
// key argument.
bytes range_end = 3;
// If prev_kv is set, gets the previous key-value pairs before deleting it.
// The previous key-value pairs will be returned in the delete response.
bool prev_kv = 4;
}
message DeleteRangeResponse {
ResponseHeader header = 1;
// deleted is the number of keys deleted by the delete range request.
int64 deleted = 2;
// If prev_kv is set in the request, the previous key-value pairs will be
// returned.
repeated KeyValue prev_kvs = 3;
}
message MoveValueRequest {
RequestHeader header = 1;
// If from_key dose not exist, return the value of to_key (if it exists).
// If from_key exists, move the value of from_key to to_key (i.e. rename),
// and return the value.
bytes from_key = 2;
bytes to_key = 3;
}
message MoveValueResponse {
ResponseHeader header = 1;
// If from_key dose not exist, return the value of to_key (if it exists).
// If from_key exists, return the value of from_key.
KeyValue kv = 2;
}