I'm a systems engineer obsessed with building production-ready, observable AI systems. My focus spans architectural depth, defensive design, and trade-off analysis across latency, cost, and accuracy.
- ποΈ Systems-First Thinking β Designing resilient, observable AI systems with measurable SLOs
- π‘οΈ Defensive Engineering β Building graceful failure recovery and fault tolerance into production systems
- π Anomaly Detection & Fault Prognosis β Real-time monitoring using symbolic filtering and diagnostic systems
- π MLOps Excellence β Production ML pipelines with observability at core
- π― Trade-off Analysis β Optimizing latency, cost, and model accuracy for real-world constraints
- π€ HITL Systems β Human-in-the-loop feedback loops for continuous system improvement
- π Architecture Documentation β Clear system design for complex distributed systems
- π Contributing to open-source systems engineering and AI infrastructure
Interests: AI Systems Engineering β’ MLOps β’ Production ML β’ Distributed Systems β’ Fault Detection β’ Observability β’ SLO Engineering β’ Causal Inference β’ Symbolic Methods
| Years in Systems Engineering 7+ years |
Production ML Systems 15+ deployed |
Open Source Repos 20+ projects |
| Primary Language Rust & Python |
ML Framework PyTorch & TensorFlow |
Deployment Stack Kubernetes & Ray |
| π― NeuralBudget | π AI Architecture Blueprints |
|---|---|
| SLO engineering framework for production ML systems spanning traditional software and MLOps. Precision, reliability, and architectural depth. | Systems-first engineering for production-ready agentic AI. Observability, defensive design, and trade-off analysis guides. |
| π Fault Oracle | π« NoTears DAG Learning |
|---|---|
| Rust-based symbolic dynamic filtering for real-time anomaly detection and fault prognosis in complex systems. | Rust implementation of NO TEARS continuous optimization for causal structure learning in DAGs. |
- Design and implement observable, fault-tolerant AI systems at scale
- SLO engineering spanning ML models, inference pipelines, and infrastructure
- Architectural patterns for agentic AI and multi-step reasoning systems
- Real-time anomaly detection using symbolic dynamic filtering
- Fault prognosis and predictive maintenance in complex systems
- Causal reasoning for root cause analysis
- Model deployment pipelines with observability built-in
- Latency-accuracy-cost optimization
- Continuous monitoring and drift detection
- Distributed systems design and architecture
- Defensive programming practices
- Trade-off analysis documentation
Languages
ML & Data
MLOps & Observability
Frameworks & Tools
Symbolic & Causal Methods
"Systems are defined by their constraints, not their capabilities."
I believe in building AI systems with:
- Observability First β If you can't measure it, you can't understand it
- Defensive Design β Plan for failure modes and recover gracefully
- Trade-off Transparency β Make explicit choices between latency, cost, and accuracy
- Human-in-the-Loop β Leverage human judgment where AI has uncertainty
- Causal Reasoning β Go beyond correlation to understand system behavior
- π¨ Building robust SLO frameworks for production ML systems
- π Implementing real-time anomaly detection for complex distributed systems
- π― Designing agentic AI architectures with observability at core
- π Documenting systems engineering best practices for AI
"Complexity is the enemy of reliability. Simplicity is the path to understanding."
Last updated: July 2026 | Made with β€οΈ for the systems engineering community

