625 lines
20 KiB
TypeScript
625 lines
20 KiB
TypeScript
/**
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* Inbound queue ordering stress / benchmark harness (same-language TypeScript baseline).
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*
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* Milestone `inbound-queue-ordering`의 verify Epic 기준선을 만든다. 절대 성능 합격선을 고정하지 않고
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* local 환경 baseline(throughput, p50/p95/p99 latency, peak memory)을 남기며, 안정성 합격선만 hard fail로
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* 둔다: nonce mismatch 0, response type mismatch 0, unexpected timeout 0, connection별 FIFO 위반 0,
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* 종료 후 pending/queue leak 0.
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*
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* 출력 계약(stdout): 각 측정 축마다 한 줄의 `ROW|...` 레코드를 내고, 마지막에 `SUMMARY|...` 한 줄을 낸다.
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* 사람이 읽는 진행 로그는 stderr로 보낸다. 안정성 위반이 하나라도 있으면 process exit code 1.
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*
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* 측정 축(profile):
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* - roundtrip : 동일 connection request-response, concurrency 1/16/64/256, latency 분포.
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* - burst : 단일 connection fire-and-forget burst, dispatch 순서/누락/leak.
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* - sustained : 일정 시간 지속 request-response, throughput/p95/p99/peak memory.
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* - parallel : 다중 connection 동시 request-response, connection별 FIFO/nonce 독립성.
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* - gateway : communicator `onReceivedFrame` opt-in 경로에서 worker_threads gateway(on) vs
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* inline decode fallback(off) 비교 baseline. TcpClient는 inline decode로 enqueue하므로
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* gateway 효과는 이 frame-ingest 경로에서만 켤 수 있고, 작은 payload에서는 이득이
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* 불명확하여 inline fallback을 안전 기본값으로 본다.
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*/
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import * as net from "node:net";
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import { availableParallelism } from "node:os";
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import {
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addListenerTyped,
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Communicator,
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parserFromSchema,
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type ParserMap,
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type Transport,
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} from "../src/communicator.js";
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import { createNodeWorkerGateway } from "../src/node_inbound_gateway.js";
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import {
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create,
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PacketBaseSchema,
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TestDataSchema,
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toBinary,
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type TestData,
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} from "../src/packets/message_common_pb.js";
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import { connectTcp, TcpClient } from "../src/tcp_client.js";
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import { TcpServer } from "../src/tcp_server.js";
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/** stress harness 전용 TCP client factory. heartbeat 비활성(interval=0)으로 측정 noise를 줄인다. */
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function newTcpClient(socket: net.Socket): TcpClient {
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return new TcpClient(socket, 0, 0, parserMap());
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}
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const HOST = "127.0.0.1";
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const ALL_PROFILES = ["roundtrip", "burst", "sustained", "parallel", "gateway"] as const;
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type Profile = (typeof ALL_PROFILES)[number];
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type Mode = "quick" | "full";
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/** 안정성 위반 카운터. 0이 아니면 해당 축은 FAIL이고 프로세스도 non-zero exit한다. */
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interface Stability {
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timeouts: number;
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nonceMismatch: number;
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typeMismatch: number;
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fifoViolations: number;
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pendingLeak: number;
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}
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interface Row {
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profile: Profile;
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axis: string;
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requests: number;
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throughputRps: number;
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p50: number;
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p95: number;
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p99: number;
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gateway: string;
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memMb: number;
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stability: Stability;
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}
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const rows: Row[] = [];
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function newStability(): Stability {
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return { timeouts: 0, nonceMismatch: 0, typeMismatch: 0, fifoViolations: 0, pendingLeak: 0 };
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}
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function stabilityViolations(s: Stability): number {
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return s.timeouts + s.nonceMismatch + s.typeMismatch + s.fifoViolations + s.pendingLeak;
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}
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function rowStatus(row: Row): "PASS" | "FAIL" {
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return stabilityViolations(row.stability) === 0 ? "PASS" : "FAIL";
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}
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function emitRow(row: Row): void {
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rows.push(row);
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const s = row.stability;
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process.stdout.write(
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[
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"ROW",
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row.profile,
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row.axis,
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String(row.requests),
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row.throughputRps.toFixed(1),
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row.p50.toFixed(3),
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row.p95.toFixed(3),
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row.p99.toFixed(3),
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String(s.timeouts),
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String(s.nonceMismatch),
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String(s.typeMismatch),
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String(s.fifoViolations),
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String(s.pendingLeak),
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row.gateway,
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row.memMb.toFixed(1),
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rowStatus(row),
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].join("|") + "\n",
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);
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}
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function log(line: string): void {
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process.stderr.write(line + "\n");
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}
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function parserMap(): ParserMap {
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return new Map([[TestDataSchema.typeName, parserFromSchema(TestDataSchema)]]);
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}
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function percentile(sorted: number[], p: number): number {
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if (sorted.length === 0) {
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return 0;
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}
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const rank = Math.ceil((p / 100) * sorted.length) - 1;
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const idx = Math.min(sorted.length - 1, Math.max(0, rank));
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return sorted[idx];
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}
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function memMb(): number {
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return process.memoryUsage().rss / (1024 * 1024);
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}
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function sleep(ms: number): Promise<void> {
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return new Promise((resolve) => setTimeout(resolve, ms));
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}
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function errorMessage(err: unknown): string {
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return err instanceof Error ? err.message : String(err);
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}
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/** request 실패를 안정성 카운터의 적절한 항목으로 분류한다. */
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function classifyRequestError(message: string, stability: Stability): void {
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if (message.includes("timeout")) {
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stability.timeouts += 1;
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} else if (message.includes("type mismatch")) {
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stability.typeMismatch += 1;
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} else {
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stability.nonceMismatch += 1;
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}
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}
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/** request-response echo + per-connection FIFO 감시를 붙인 TCP 서버를 띄우고 body를 실행한다. */
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async function withRequestServer(
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stability: Stability,
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body: (port: number) => Promise<void>,
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): Promise<void> {
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const server = new TcpServer(HOST, 0, newTcpClient);
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server.onClientConnected = (client) => {
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let lastNonce = 0;
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// raw addRequestListener로 nonce를 받아 connection별 FIFO(단조 증가) 위반을 감시한다.
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client.communicator.addRequestListener(TestDataSchema.typeName, (msg, nonce) => {
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if (nonce < lastNonce) {
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stability.fifoViolations += 1;
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}
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lastNonce = nonce;
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const data = msg as TestData;
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return create(TestDataSchema, { index: data.index * 2, message: `echo:${data.message}` });
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});
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};
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await server.start();
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try {
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await body(server.port);
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} finally {
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await server.stop();
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}
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}
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/** 한 connection에서 concurrency C로 request batch를 보내고 latency를 모은다. */
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async function runRequestLoad(
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client: TcpClient,
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total: number,
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concurrency: number,
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timeoutMs: number,
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stability: Stability,
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): Promise<number[]> {
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const latencies: number[] = [];
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let issued = 0;
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let nextIndex = 0;
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async function oneRequest(index: number): Promise<void> {
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const started = performance.now();
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try {
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const res = await client.communicator.sendRequest(
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create(TestDataSchema, { index, message: `req-${index}` }),
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TestDataSchema,
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timeoutMs,
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);
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const elapsed = performance.now() - started;
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latencies.push(elapsed);
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if (res.index !== index * 2 || res.message !== `echo:req-${index}`) {
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stability.nonceMismatch += 1;
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}
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} catch (err) {
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classifyRequestError(errorMessage(err), stability);
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}
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}
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while (issued < total) {
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const batchSize = Math.min(concurrency, total - issued);
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const batch: Array<Promise<void>> = [];
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for (let i = 0; i < batchSize; i += 1) {
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batch.push(oneRequest(nextIndex));
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nextIndex += 1;
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}
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issued += batchSize;
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await Promise.all(batch);
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}
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return latencies;
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}
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/** latency 분포가 없는 throughput 중심 축(burst/gateway)을 위한 row emit. */
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function emitThroughputRow(
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profile: Profile,
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axis: string,
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count: number,
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elapsedMs: number,
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stability: Stability,
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gateway: string,
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observedMemMb: number,
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): void {
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emitRow({
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profile,
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axis,
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requests: count,
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throughputRps: elapsedMs > 0 ? (count / elapsedMs) * 1000 : 0,
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p50: 0,
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p95: 0,
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p99: 0,
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gateway,
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memMb: observedMemMb,
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stability,
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});
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}
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function summarizeLatencies(
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profile: Profile,
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axis: string,
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latencies: number[],
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elapsedMs: number,
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stability: Stability,
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gateway: string,
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observedMemMb: number,
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): void {
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const sorted = [...latencies].sort((a, b) => a - b);
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const throughput = elapsedMs > 0 ? (latencies.length / elapsedMs) * 1000 : 0;
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emitRow({
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profile,
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axis,
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requests: latencies.length,
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throughputRps: throughput,
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p50: percentile(sorted, 50),
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p95: percentile(sorted, 95),
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p99: percentile(sorted, 99),
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gateway,
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memMb: observedMemMb,
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stability,
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});
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}
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async function profileRoundtrip(mode: Mode): Promise<void> {
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const concurrencies = [1, 16, 64, 256];
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const batches = mode === "quick" ? 2 : 20;
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const timeoutMs = mode === "quick" ? 5_000 : 15_000;
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log(`[roundtrip] mode=${mode} concurrencies=${concurrencies.join(",")} batches/level=${batches}`);
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for (const concurrency of concurrencies) {
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const stability = newStability();
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const total = concurrency * batches;
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await withRequestServer(stability, async (port) => {
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const client = await connectTcp(HOST, port, 0, 0, parserMap());
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try {
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const started = performance.now();
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const latencies = await runRequestLoad(client, total, concurrency, timeoutMs, stability);
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const elapsed = performance.now() - started;
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summarizeLatencies("roundtrip", `concurrency=${concurrency}`, latencies, elapsed, stability, "off", memMb());
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} finally {
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await client.close();
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if (!leakClear(client)) {
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stability.pendingLeak += 1;
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}
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}
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});
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log(`[roundtrip] concurrency=${concurrency} done violations=${stabilityViolations(stability)}`);
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}
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}
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/** close 후 communicator가 더 이상 살아있지 않은지로 pending/queue leak을 근사한다. */
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function leakClear(client: TcpClient): boolean {
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return !client.communicator.isAlive();
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}
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async function profileBurst(mode: Mode): Promise<void> {
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const counts = mode === "quick" ? [200] : [1_000, 10_000];
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log(`[burst] mode=${mode} counts=${counts.join(",")}`);
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for (const count of counts) {
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const stability = newStability();
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let received = 0;
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let lastIndex = -1;
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let resolveDone: (() => void) | null = null;
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const done = new Promise<void>((resolve) => {
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resolveDone = resolve;
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});
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const server = new TcpServer(HOST, 0, newTcpClient);
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server.onClientConnected = (client) => {
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addListenerTyped(client.communicator, TestDataSchema, (msg) => {
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if (msg.index <= lastIndex) {
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stability.fifoViolations += 1;
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}
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lastIndex = msg.index;
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received += 1;
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if (received >= count && resolveDone !== null) {
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resolveDone();
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resolveDone = null;
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}
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});
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};
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await server.start();
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const client = await connectTcp(HOST, server.port, 0, 0, parserMap());
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const started = performance.now();
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try {
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// fire-and-forget를 순차 await하여 등록 순서를 보존한다(writeQueue backpressure도 함께 검증).
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for (let i = 0; i < count; i += 1) {
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await client.communicator.send(create(TestDataSchema, { index: i, message: `b-${i}` }));
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}
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await withTimeout(done, mode === "quick" ? 10_000 : 60_000, `burst ${count} dispatch timeout`);
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const elapsed = performance.now() - started;
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if (received !== count) {
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stability.pendingLeak += 1;
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}
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emitThroughputRow("burst", `count=${count}`, count, elapsed, stability, "off", memMb());
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} catch (err) {
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stability.timeouts += 1;
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log(`[burst] count=${count} error=${errorMessage(err)}`);
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emitThroughputRow("burst", `count=${count}`, received, performance.now() - started, stability, "off", memMb());
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} finally {
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await client.close();
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await server.stop();
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if (!leakClear(client)) {
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stability.pendingLeak += 1;
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}
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}
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log(`[burst] count=${count} received=${received} violations=${stabilityViolations(stability)}`);
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}
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}
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async function profileSustained(mode: Mode): Promise<void> {
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const durationMs = mode === "quick" ? 2_000 : 30_000;
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const concurrency = 16;
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const timeoutMs = 15_000;
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log(`[sustained] mode=${mode} duration=${durationMs}ms concurrency=${concurrency}`);
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const stability = newStability();
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let peakMem = memMb();
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await withRequestServer(stability, async (port) => {
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const client = await connectTcp(HOST, port, 0, 0, parserMap());
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const latencies: number[] = [];
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let nextIndex = 0;
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const deadline = performance.now() + durationMs;
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try {
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while (performance.now() < deadline) {
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const batch: Array<Promise<void>> = [];
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for (let i = 0; i < concurrency; i += 1) {
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const index = nextIndex;
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nextIndex += 1;
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const started = performance.now();
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batch.push(
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client.communicator
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.sendRequest(
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create(TestDataSchema, { index, message: `s-${index}` }),
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TestDataSchema,
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timeoutMs,
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)
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.then((res) => {
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latencies.push(performance.now() - started);
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if (res.index !== index * 2 || res.message !== `echo:s-${index}`) {
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stability.nonceMismatch += 1;
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}
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})
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.catch((err: unknown) => {
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classifyRequestError(errorMessage(err), stability);
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}),
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);
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}
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await Promise.all(batch);
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const current = memMb();
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if (current > peakMem) {
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peakMem = current;
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}
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}
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const elapsed = durationMs;
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summarizeLatencies("sustained", `duration=${durationMs}ms`, latencies, elapsed, stability, "off", peakMem);
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} finally {
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await client.close();
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if (!leakClear(client)) {
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stability.pendingLeak += 1;
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}
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}
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});
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log(`[sustained] done peakMemMb=${peakMem.toFixed(1)} violations=${stabilityViolations(stability)}`);
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}
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async function profileParallel(mode: Mode): Promise<void> {
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const clientCount = mode === "quick" ? 4 : 16;
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const perClient = mode === "quick" ? 50 : 500;
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const concurrency = 8;
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const timeoutMs = 15_000;
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log(`[parallel] mode=${mode} clients=${clientCount} perClient=${perClient}`);
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const stability = newStability();
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await withRequestServer(stability, async (port) => {
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const clients = await Promise.all(
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Array.from({ length: clientCount }, () => connectTcp(HOST, port, 0, 0, parserMap())),
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);
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const allLatencies: number[] = [];
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const started = performance.now();
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try {
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await Promise.all(
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clients.map(async (client) => {
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const latencies = await runRequestLoad(client, perClient, concurrency, timeoutMs, stability);
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allLatencies.push(...latencies);
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}),
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);
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const elapsed = performance.now() - started;
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summarizeLatencies(
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"parallel",
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`clients=${clientCount}`,
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allLatencies,
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elapsed,
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stability,
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"off",
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memMb(),
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);
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} finally {
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await Promise.all(clients.map(async (client) => client.close()));
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for (const client of clients) {
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if (!leakClear(client)) {
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stability.pendingLeak += 1;
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}
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}
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}
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});
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log(`[parallel] done violations=${stabilityViolations(stability)}`);
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}
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const NOOP_TRANSPORT: Transport = {
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writePacket: async () => {},
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close: async () => {},
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};
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/**
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* gateway on/off baseline. communicator의 `onReceivedFrame` opt-in 경로에 raw PacketBase frame을 흘려
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* dispatch 순서/throughput을 비교한다. off=inline decode, on=worker_threads decode pool.
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* 작은 payload의 in-process 측정이므로 성능 이득이 불명확할 수 있고, 안정성(순서/leak) 0 위반만 합격선으로 둔다.
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*/
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async function profileGateway(mode: Mode): Promise<void> {
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const count = mode === "quick" ? 500 : 5_000;
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log(`[gateway] mode=${mode} frames=${count}`);
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const frames: Uint8Array[] = [];
|
|
for (let i = 0; i < count; i += 1) {
|
|
const base = create(PacketBaseSchema, {
|
|
typeName: TestDataSchema.typeName,
|
|
nonce: i + 1,
|
|
data: toBinary(TestDataSchema, create(TestDataSchema, { index: i, message: `g-${i}` })),
|
|
});
|
|
frames.push(toBinary(PacketBaseSchema, base));
|
|
}
|
|
|
|
for (const gatewayOn of [false, true]) {
|
|
const stability = newStability();
|
|
const comm = new Communicator();
|
|
comm.initialize(NOOP_TRANSPORT, parserMap());
|
|
comm.setFrameErrorHandler(() => {
|
|
stability.typeMismatch += 1;
|
|
});
|
|
|
|
let dispatched = 0;
|
|
let lastIndex = -1;
|
|
let resolveDone: (() => void) | null = null;
|
|
const done = new Promise<void>((resolve) => {
|
|
resolveDone = resolve;
|
|
});
|
|
addListenerTyped(comm, TestDataSchema, (msg) => {
|
|
if (msg.index <= lastIndex) {
|
|
stability.fifoViolations += 1;
|
|
}
|
|
lastIndex = msg.index;
|
|
dispatched += 1;
|
|
if (dispatched >= count && resolveDone !== null) {
|
|
resolveDone();
|
|
resolveDone = null;
|
|
}
|
|
});
|
|
|
|
if (gatewayOn) {
|
|
const gateway = createNodeWorkerGateway({
|
|
sink: (frame) =>
|
|
comm.enqueueInbound(frame.typeName, frame.data, frame.incomingNonce, frame.responseNonce),
|
|
onError: () => {
|
|
stability.typeMismatch += 1;
|
|
},
|
|
workers: Math.max(2, Math.min(4, availableParallelism())),
|
|
});
|
|
comm.attachInboundGateway(gateway);
|
|
}
|
|
|
|
const started = performance.now();
|
|
try {
|
|
for (const raw of frames) {
|
|
comm.onReceivedFrame(raw);
|
|
}
|
|
await withTimeout(done, mode === "quick" ? 15_000 : 60_000, `gateway dispatch timeout`);
|
|
const elapsed = performance.now() - started;
|
|
if (dispatched !== count) {
|
|
stability.pendingLeak += 1;
|
|
}
|
|
emitThroughputRow("gateway", `frames=${count}`, count, elapsed, stability, gatewayOn ? "on" : "off", memMb());
|
|
} catch (err) {
|
|
stability.timeouts += 1;
|
|
log(`[gateway] on=${gatewayOn} error=${errorMessage(err)}`);
|
|
emitThroughputRow(
|
|
"gateway",
|
|
`frames=${count}`,
|
|
dispatched,
|
|
performance.now() - started,
|
|
stability,
|
|
gatewayOn ? "on" : "off",
|
|
memMb(),
|
|
);
|
|
} finally {
|
|
await comm.close();
|
|
}
|
|
log(`[gateway] on=${gatewayOn} dispatched=${dispatched} violations=${stabilityViolations(stability)}`);
|
|
}
|
|
}
|
|
|
|
async function withTimeout<T>(promise: Promise<T>, timeoutMs: number, label: string): Promise<T> {
|
|
let timer: ReturnType<typeof setTimeout> | undefined;
|
|
try {
|
|
return await Promise.race([
|
|
promise,
|
|
new Promise<T>((_, reject) => {
|
|
timer = setTimeout(() => reject(new Error(label)), timeoutMs);
|
|
}),
|
|
]);
|
|
} finally {
|
|
if (timer !== undefined) {
|
|
clearTimeout(timer);
|
|
}
|
|
}
|
|
}
|
|
|
|
function parseArgs(argv: string[]): { mode: Mode; profiles: Profile[] } {
|
|
let mode: Mode = "quick";
|
|
let profiles: Profile[] = [...ALL_PROFILES];
|
|
for (const arg of argv) {
|
|
if (arg === "--quick") {
|
|
mode = "quick";
|
|
} else if (arg === "--full") {
|
|
mode = "full";
|
|
} else if (arg.startsWith("--mode=")) {
|
|
const value = arg.slice("--mode=".length);
|
|
mode = value === "full" ? "full" : "quick";
|
|
} else if (arg.startsWith("--profiles=") || arg.startsWith("--profile=")) {
|
|
const value = arg.slice(arg.indexOf("=") + 1);
|
|
const requested = value
|
|
.split(",")
|
|
.map((p) => p.trim())
|
|
.filter((p) => p.length > 0);
|
|
const selected = requested.filter((p): p is Profile => (ALL_PROFILES as readonly string[]).includes(p));
|
|
if (selected.length > 0) {
|
|
profiles = selected;
|
|
}
|
|
}
|
|
}
|
|
return { mode, profiles };
|
|
}
|
|
|
|
async function main(): Promise<void> {
|
|
const { mode, profiles } = parseArgs(process.argv.slice(2));
|
|
log(`INFO stress harness mode=${mode} profiles=${profiles.join(",")} typeName=${TestDataSchema.typeName}`);
|
|
|
|
const runners: Record<Profile, (mode: Mode) => Promise<void>> = {
|
|
roundtrip: profileRoundtrip,
|
|
burst: profileBurst,
|
|
sustained: profileSustained,
|
|
parallel: profileParallel,
|
|
gateway: profileGateway,
|
|
};
|
|
|
|
for (const profile of profiles) {
|
|
await runners[profile](mode);
|
|
}
|
|
|
|
const totalViolations = rows.reduce((acc, row) => acc + stabilityViolations(row.stability), 0);
|
|
const status = totalViolations === 0 ? "PASS" : "FAIL";
|
|
process.stdout.write(
|
|
`SUMMARY|status=${status}|mode=${mode}|profiles=${profiles.join(",")}|rows=${rows.length}|stability_violations=${totalViolations}\n`,
|
|
);
|
|
if (status !== "PASS") {
|
|
process.exitCode = 1;
|
|
}
|
|
}
|
|
|
|
void main().catch((err: unknown) => {
|
|
process.stdout.write(`SUMMARY|status=FAIL|error=${errorMessage(err)}\n`);
|
|
log(`FATAL ${errorMessage(err)}`);
|
|
process.exitCode = 1;
|
|
});
|