ceremonyclient/node/protobufs/node.proto

syntax = "proto3";

package quilibrium.node.node.pb;

option go_package = "source.quilibrium.com/quilibrium/monorepo/node/protobufs";

import "clock.proto";

message GetFramesRequest {
  bytes filter = 1;
  uint64 from_frame_number = 2;
  uint64 to_frame_number = 3;
  bool include_candidates = 4;
}

message GetFrameInfoRequest {
  bytes filter = 1;
  uint64 frame_number = 2;
  bytes selector = 3;
}

message GetPeerInfoRequest {}

message GetNodeInfoRequest {}

message GetNetworkInfoRequest {}

message FramesResponse {
  repeated quilibrium.node.clock.pb.ClockFrame truncated_clock_frames = 1;
}

message FrameInfoResponse {
  quilibrium.node.clock.pb.ClockFrame clock_frame = 1;
}

message PeerInfo {
  bytes peer_id = 1;
  repeated string multiaddrs = 2;
  uint64 max_frame = 3;
  int64 timestamp = 4;
  bytes version = 5;
  bytes signature = 6;
  bytes public_key = 7;
  bytes total_distance = 8;
}

message PeerInfoResponse {
  repeated PeerInfo peer_info = 1;
  repeated PeerInfo uncooperative_peer_info = 2;
}

message NetworkInfo {
  bytes peer_id = 1;
  repeated string multiaddrs = 2;
  double peer_score = 3;
}

message NodeInfoResponse {
  string peer_id = 1;
  uint64 max_frame = 2;
  uint64 peer_score = 3;
  bytes version = 4;
}

message PutPeerInfoRequest {
  repeated PeerInfo peer_info = 1;
  repeated PeerInfo uncooperative_peer_info = 2;
}

message PutNodeInfoRequest {
  string peer_id = 1;
  uint64 max_frame = 2;
  uint64 peer_score = 3;
  bytes signature = 4;
}

message PutResponse {}

message NetworkInfoResponse {
  repeated NetworkInfo network_info = 1;
}

message GetTokenInfoRequest {}

message TokenInfoResponse {
  // Total active token supply, as a 256 bit integer representing maximum
  // divisble units. 1 QUIL = 8000000000 units, 50 QUIL would be represented by
  // 0x0000000000000000000000000000000000000000000000000000005D21DBA000
  bytes confirmed_token_supply = 1;
  // Total token supply, including unconfirmed frame data, as a 256 bit integer.
  bytes unconfirmed_token_supply = 2;
  // The total number of tokens owned by the prover address associated with the
  // node.
  bytes owned_tokens = 3;
  // The total number of tokens owned by the prover address associated with the
  // node, including unconfirmed frame data.
  bytes unconfirmed_owned_tokens = 4;
}

message Capability {
  // A general protocol identifier as a uint32 – this is expected to rarely
  // iterate, and should be uniquely identifying both protocol and version.
  // Pragmatically speaking, this implies that the least significant byte
  // specifies version (which should iterate most minimally), and the three most
  // significant bytes should specify protocol. Recipients SHOULD ignore
  // messages with incompatible protocol identifiers, but also SHOULD warn on
  // identifiers with versions higher than the supported protocol. A large
  // number of unsupported protocol messages may indicate spam/some other
  // attack, whereas a large number of unsupported protocol versions may
  // indicate an out of date client, respective to which side is the maximum of
  // the version number.
  uint32 protocol_identifier = 1;
  // An optional bundle of information specific to the capability – used for
  // extensibility in negotiating variations of a protocol – e.g. Triple-Ratchet
  // but only for certain curve types.
  bytes additional_metadata = 2;
}

message SelfTestReport {
  // The difficulty the self test was conducted under
  uint32 difficulty = 1;
  // The resulting local time of computing the VDF test under the difficulty
  int64 difficulty_metric = 2;
  // The resulting local time of computing a KZG commitment for a 16 degree
  // polynomial
  int64 commit_16_metric = 3;
  // The resulting local time of computing a KZG commitment for a 128 degree
  // polynomial
  int64 commit_128_metric = 4;
  // The resulting local time of computing a KZG commitment for a 1024 degree
  // polynomial
  int64 commit_1024_metric = 5;
  // The resulting local time of computing a KZG commitment for a 65536 degree
  // polynomial
  int64 commit_65536_metric = 6;
  // The resulting local time of computing a KZG proof for a 16 degree
  // polynomial
  int64 proof_16_metric = 7;
  // The resulting local time of computing a KZG proof for a 128 degree
  // polynomial
  int64 proof_128_metric = 8;
  // The resulting local time of computing a KZG proof for a 1024 degree
  // polynomial
  int64 proof_1024_metric = 9;
  // The resulting local time of computing a KZG proof for a 65536 degree
  // polynomial
  int64 proof_65536_metric = 10;
  // The number of reported accessible cores
  uint32 cores = 11;
  // The total available memory
  bytes memory = 12;
  // The total available storage
  bytes storage = 13;
  // The list of supported capabilities
  repeated Capability capabilities = 14;
  // The highest master frame the node has
  uint64 master_head_frame = 15;
}

message ValidationMessage {
  bytes validation = 1;
}

message SyncRequest {
  quilibrium.node.clock.pb.ClockFramesRequest frames_request = 1;
}

message SyncResponse {
  quilibrium.node.clock.pb.ClockFramesResponse frames_response = 1;
}

service ValidationService {
  rpc PerformValidation(ValidationMessage) returns (ValidationMessage);
  rpc Sync(SyncRequest) returns (stream SyncResponse);
}

message GetPeerManifestsRequest {}

message PeerManifest {
  bytes peer_id = 1;
  // The difficulty the self test was conducted under
  uint32 difficulty = 2;
  // The resulting local time of computing the VDF test under the difficulty
  int64 difficulty_metric = 3;
  // The resulting local time of computing a KZG commitment for a 16 degree
  // polynomial
  int64 commit_16_metric = 4;
  // The resulting local time of computing a KZG commitment for a 128 degree
  // polynomial
  int64 commit_128_metric = 5;
  // The resulting local time of computing a KZG commitment for a 1024 degree
  // polynomial
  int64 commit_1024_metric = 6;
  // The resulting local time of computing a KZG commitment for a 65536 degree
  // polynomial
  int64 commit_65536_metric = 7;
  // The resulting local time of computing a KZG proof for a 16 degree
  // polynomial
  int64 proof_16_metric = 8;
  // The resulting local time of computing a KZG proof for a 128 degree
  // polynomial
  int64 proof_128_metric = 9;
  // The resulting local time of computing a KZG proof for a 1024 degree
  // polynomial
  int64 proof_1024_metric = 10;
  // The resulting local time of computing a KZG proof for a 65536 degree
  // polynomial
  int64 proof_65536_metric = 11;
  // The number of reported accessible cores
  uint32 cores = 12;
  // The total available memory
  bytes memory = 13;
  // The total available storage
  bytes storage = 14;
  // The list of supported capabilities
  repeated Capability capabilities = 15;
  // The highest master frame the node has
  uint64 master_head_frame = 16;
}

message PeerManifestsResponse {
  repeated PeerManifest peer_manifests = 1;
}

service NodeService {
  rpc GetFrames(GetFramesRequest) returns (FramesResponse);
  rpc GetFrameInfo(GetFrameInfoRequest) returns (FrameInfoResponse);
  rpc GetPeerInfo(GetPeerInfoRequest) returns (PeerInfoResponse);
  rpc GetNodeInfo(GetNodeInfoRequest) returns (NodeInfoResponse);
  rpc GetNetworkInfo(GetNetworkInfoRequest) returns (NetworkInfoResponse);
  rpc GetTokenInfo(GetTokenInfoRequest) returns (TokenInfoResponse);
  rpc GetPeerManifests(GetPeerManifestsRequest) returns (PeerManifestsResponse);
}

service NodeStats {
  rpc PutNodeInfo(PutNodeInfoRequest) returns (PutResponse);
  rpc PutPeerInfo(PutPeerInfoRequest) returns (PutResponse);
}