About

From AI engineer to infrastructure engineer — and back.

I've spent years learning how systems actually work at scale. OmniTechnicus is where I write the lessons down.

Twenty years ago, I stood at the intersection of curiosity and innovation, doing PhD research on neural networks at University POLITEHNICA of Bucharest — captivated by one question: how does data shape the way machines learn and behave?

While my peers focused on theoretical models, I was poking at patterns we'd now call data poisoning and prompt engineering. I didn't know it then, but I was asking questions that wouldn't go mainstream for two decades.

The pivot that changed everything

In 2005, Microsoft knocked. I faced a choice: keep pushing toward a PhD in a field the world wasn't ready for, or apply AI/ML thinking to real production systems. I took my Master's and dove into platform engineering. What looked like a departure from AI was actually the start of a deeper journey — learning how distributed systems behave at scale, how to design resilient infrastructure, how to lead teams through genuinely hard problems.

Building the foundation

At Microsoft I started in Windows Phone platform engineering — designing test frameworks and leading the Windows Insider program — and learned what it takes to ship software that millions of people depend on. I discovered that great engineering isn't just writing code: it's understanding systems, anticipating failures, and building for scale.

Then I moved into cloud infrastructure: CI/CD automation that cut deployment times by 85% and bugs by 83%, validation frameworks for Azure services like Event Grid, Key Vault, and Cosmos DB, and systems that recovered from regional outages in thirty minutes instead of days.

Each project taught me something new about resilience, automation, and the balance between innovation and reliability.

Great engineering is not just writing code. It is understanding systems, anticipating failure, and building for scale.

Full circle: AI returns

Then came 2020, and AI exploded into the mainstream. Suddenly the questions from my PhD research were everywhere — and I had something rare to bring: fifteen years of production engineering to apply to them.

I built a production RAG system that tripled accuracy to 76%, processing 20–30 incidents daily. I architected an Artifact Cache Monitor that reduced incidents by 90% and bandwidth waste by 99.8%. I'm now developing predictive worker-scaling systems that use ML to optimize resource allocation by 25–30%. The researcher who left academia in 2005 came back — not with theories, but with production-grade AI systems running at Microsoft scale.

What drives me today

I don't just build AI systems; I bridge worlds — connecting cutting-edge research with the messy reality of production. I take ideas out of papers and turn them into things that survive real traffic, real failures, real constraints. My edge isn't just understanding neural networks or Kubernetes or distributed systems — it's understanding how they fit together, how to make them work in production, and how to lead teams through the complexity.

I hold a patent for objective application-rating systems and have another pending for AI-driven predictive scaling. But the patents aren't the point. The point is solving problems that matter and mentoring the people who'll take this further than I will.

The thread

The questions I asked in 2005 are still the questions I ask today. The difference is that now I have the tools to answer them — and a place to write the answers down honestly.

2026-present · Microsoft

Principal Software Engineer - Microsoft Copilot

Building the infrastructure backbone of Microsoft Copilot — AI configuration persistence, orchestration reliability, and data safety for production AI services at scale

highlights
  • Designed and implemented the persistence layer for AI configuration management, enabling reliable storage and versioning of model settings and orchestration parameters across Copilot's distributed pipeline
  • Engineered the container migration solution for Copilot's orchestrator services, ensuring continuity and operational stability across the AI execution layer
  • Built data guardrails in the persistence mechanism to detect and block sensitive content from being stored or propagated, enforcing security and compliance boundaries across the AI configuration pipeline
  • Refactored the container communication architecture to reduce inter-service latency and improve throughput across Copilot's orchestration layer
2021-2026 · Microsoft

Principal Software Engineer - Cloud/AI Infrastructure

Leading AI-powered infrastructure systems for distributed platforms serving 200+ Kubernetes microservices

highlights
  • Built production RAG system achieving 76% accuracy (3× improvement), processing 20-30 incidents daily
  • Architected Artifact Cache Monitor reducing incidents 90% (60→6/month) and bandwidth waste 99.8% (288GB→540MB/day)
  • Enabled 30-minute recovery during Azure regional outage through APIM failover architecture (prevented multi-day downtime)
2017-2021 · Microsoft

Senior Software Engineer - Cloud Infrastructure

Designed automation and validation frameworks for Azure services and virtualization platforms

highlights
  • Built CI/CD automation reducing deployment time 85% (2.5hrs→30min) with 83% bug reduction (30→4/year)
  • Developed package validation automation for Azure Event Grid, KeyVault, Storage Blob, CosmosDB
  • Implemented nested VM performance monitoring for Hyper-V supporting Windows and Linux workloads
2012-2017 · Microsoft

Senior Software Engineer Team Lead - Windows Platform

Led Windows Insider program and Windows Phone platform engineering

highlights
  • Led design and implementation of Windows Insider software manager (Windows 8.1 ship cycle)
  • Delivered complete test infrastructure for Windows Phone 8 device imaging and backup/restore
  • Designed test frameworks for Windows Phone 7, 7.5, Zune 4.8, and System Center Mobile Device Manager
2000-2005 · University POLITEHNICA of Bucharest

PhD Researcher - Neural Networks & Human-AI Interaction

Early research on data influence in neural networks, preceding modern understanding of data poisoning and prompt engineering

highlights
  • Pioneered research on how data patterns influence neural network learning and behavior
  • Explored human-AI interaction patterns in neural network systems
  • Left program after receiving Master's degree offer and Microsoft recruitment (applied 20 years of AI/ML expertise to production infrastructure)
2016/2025 · Microsoft

Patents & Innovation

US Patent (https://patents.justia.com/patent/20140258308): "Objective Application Rating" (Filed 2013, Granted 2016) – Automated system for computing objective application quality ratings from telemetry data collected across distributed devices

highlights
  • US Patent (https://patents.justia.com/patent/20140258308): "Objective Application Rating" (Filed 2013, Granted 2016) – Automated system for computing objective application quality ratings from telemetry data collected across distributed devices
  • Proposed Patent (2024): AI-driven predictive worker scaling for distributed systems – Machine learning system for anticipating workload patterns and dynamically provisioning compute resources, achieving 25-30% resource optimization