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NEXUS-STREAM

High-throughput event pipeline

STACK
  • C++
  • Redis
  • PostgreSQL
  • FastAPI
  • Docker Compose
01

The System

An enterprise data pipeline built to reliably process over 5,000 events per second with sub-10ms latency on a highly secure microservice architecture.

02

The Problem

Standard software chokes on high-volume data. The client's initial setup couldn't ingest information fast enough, causing severe operational bottlenecks.

03

The Constraints

(1) 5,000+ EPS sustained throughput.

(2) Sub-10ms processing latency.

(3) Perfect environment parity between staging and production.

(4) Zero data loss during extreme traffic spikes.

04

The Original Architecture

Direct-to-database ingestion. The system attempted to write unbuffered data instantly, overwhelming the storage layer.

05

The Breaking Point

Draft — verify before publishing

REQUEST → SERVICE → DATABASE.

Database IO bottlenecked the entire application, causing dropped messages and massive latency under peak load (draft — verify against the real incident and confirm which mitigation actually fixed it).

06

The Architectural Decision

Decoupled ingestion from processing. We introduced a high-speed data broker and rebuilt the core processing engine in C++ to eliminate software bottlenecks.

07

The Data Engine

Draft — verify before publishing

Data Arrives → High-Speed Broker → C++ Engine → Secure Storage. Exact environment parity prevents configuration bugs before production (draft — confirm which tier and what the actual fix was).

08

The Application Layer

A clean API wrapper allows external software to interact seamlessly, masking the complex, high-speed C++ architecture running under the hood.

09

The Security Model

Strict microservice isolation and automated testing environments eliminate configuration vulnerabilities and unauthorized network access.

10

Security + Performance

Adding a data broker introduces a network hop, but decoupling ingestion securely absorbs massive traffic spikes without crashing the system.

11

The Messy Middle

Option A — Buy more servers. Rejected: Didn't fix the architectural flaw.

Option B — Tweak database. Rejected: Would still fail under peak load.

Option C (selected) — C++ core and high-speed broker.

12

Failure Modes

If storage goes offline, the broker safely buffers data. Isolated microservices ensure failures never cascade. Detect → Contain → Recover → Resume.

13

The Final System

CLIENTS → BROKER → C++ PROCESSING ENGINE → SECURE DATABASE.

14

The Numbers

5,000+ events/sec · <10ms latency · 100% automated reliability.

[MANUAL INPUT REQUIRED: peak burst tolerance / recovery time after broker saturation]

15

What Changed

Before: Fragile, bottlenecked, and easily overwhelmed by traffic.

After: Lightning-fast, infinitely scalable, and operationally resilient.

16

The Engineering Lesson

01 Intelligent architecture scales better than bigger servers.

02 Decoupling ingestion from processing is mandatory for massive scale.