Mission: Enforce zero-trust data integrity against noisy OCR streams and protect downstream systems from degradation.
Welcome to my data engineering arsenal. This repository contains a deterministic logic engine designed for two main purposes: Reconnaissance (mapping the battlefield to understand the ingestion source) and Data Hardening (cleaning and extracting unstructured data with zero-error tolerance).
Below is the documentation for the two core modules in this toolkit.
Look Mom, I'm the Robin Hood of data! But more polite, compliant, and with better documentation.
This is a lightweight Python Proof of Concept (PoC) designed to probe target websites, identify their underlying architecture (Next.js, React, VTEX, Static HTML), and recommend the optimal data extraction strategy before sending in the heavy artillery.
- Static HTML Sites: E-commerce platforms built on legacy or server-rendered architectures.
- Unprotected APIs: Sites that carelessly leave their
application/jsonendpoints exposed in the open. - Initial Reconnaissance: Great for getting a quick map of the terrain before spending compute resources.
I am an auditor. I don't hide my code's flaws; I document them. Here is the Red Team analysis of this PoC:
- The Akamai / Cloudflare Wall: This script uses the standard
requestslibrary. Enterprise WAFs analyze the JA3 TLS fingerprint. They instantly recognize a Python script and block the connection. (Fix: Swap tocurl_cffior use proxy networks). - The Ghost DOM (SPA): The DOM density scanner relies on HTML tags. Modern React/Next.js sites send an empty
<div id="root"></div>. Becauserequestscannot execute JS, the script sees an empty room. (Fix: Headless Playwright grid). - The "Russian Roulette" Sampling Flaw: The script picks one random URL to determine the tech stack. If it picks "Terms & Conditions", it falsely assumes the site is static HTML. (Fix: Triangulate by sampling 3-5 distinct URLs).
- The Pokemon Exception ("Gotta catch 'em all"): A bare
try/except:block can mask critical underlying system errors. (Fix: Catch explicit exceptions likeKeyError).
Extraction and Sanitization Architecture for Unstructured Data
This is the actual heavy artillery. A Python-based logic engine designed to process, sanitize, and structure "dirty" or corrupted text streams coming from Optical Character Recognition (OCR) engines.
OCR tools (like Google ML Kit or Tesseract) frequently suffer from "hallucinations" (e.g., confusing the number 0 with the letter O) and capture garbage text from physical document margins. Standard extraction algorithms fail when facing this level of inconsistency.
I developed this engine based on Zero-Trust principles (never trust the raw data input). It uses advanced regular expressions (Regex) and exclusion dictionaries to achieve:
- Fault Tolerance: Usage of Lookaheads/Lookbehinds to capture specific structures while ignoring surrounding noise.
- Hallucination Correction: Proactive cleaning of mutated characters during runtime.
- White-Noise Filtering: Implementation of dynamic Blacklists to discard headers, footers, and irrelevant metadata.
This logic serves as the core for larger financial data extraction and physical document auditing projects, ensuring that databases only receive clean, structured JSON payloads, effectively preventing system crashes due to corrupted data injection.
"Obviously, the Seer V3 is a lightweight 100-line PoC designed to be dependency-free. If we fire this at Akamai, our JA3 footprint gives us away in milliseconds. In production, we deploy the Swarm Protocol: stealth-plugin Playwright clusters and residential proxy rotation. But I'm not going to burn a $5/GB residential proxy just to push a clean demo to GitHub. We are data engineers, not vandals."
P.S. To the recruiter or Tech Lead reading this until the very end: Keep in mind that both the probe (Module 1) and the data sanitization engine (Module 2) in this repository are stripped-down, foundational Proofs of Concept. The actual heavy lifting I do in production involves much deeper regex layering, parallel processing, and dynamic error-handling that are too complex (and proprietary... my precious 💍) for a public GitHub demo. Do not judge the simplicity of this code as my technical ceiling; it is simply the bare-bones baseline of my zero-trust data philosophy. I keep the real weapons under lock and key.