AI & Data × Design
Enterprise RAG Architecture for Scientific R&D
Designing permission-aware retrieval, evidence sufficiency, provenance, evaluation, and abstention as parts of one production system.
Read the architecture review ↗I combine data engineering, AI engineering, software engineering, and technical program leadership to move scientific and enterprise workflows from ambiguity to reliable production systems.
Selected scope and results from software, data, operations, hardware, and public-platform work. Official titles and full context are listed on the Experience page.
Full-stack R&D applications used across the Norwood and Cambridge user base, supported by automated CI/CD that reduced feature release time by 40%.
Inventory lifecycle work following an SAP migration across multiple contract manufacturers, including procurement workflow redesign.
Lifecycle initiatives connecting internal tools, AR/VR hardware assembly, testing, validation, and cross-functional delivery.
Release planning and user acceptance testing for reservation software and hardware serving a platform cited at 600k+ monthly active users.
Solutions architecture connects the four: framing the problem, defining system and data boundaries, de-risking delivery, and earning adoption.
Production data pipelines, Python and SQL services, orchestration, cloud data platforms, quality, governance, and scientific workflows.
Review data delivery ↗Enterprise RAG, agentic workflows, evaluation, evidence provenance, guardrails, and human-in-the-loop production systems.
Explore AI systems ↗Full-stack applications, APIs, distributed workflows, CI/CD, reliability, cloud architecture, and production operations.
Inspect engineering work ↗Technical strategy, cross-functional execution, platform migrations, integrations, risk, delivery mechanisms, and adoption.
Review program outcomes ↗A solution is only complete when its boundaries are clear, its delivery path is credible, and the people responsible for operating it can trust it.
Clarify the workflow, users, constraints, risks, success measures, and the real decision the system must improve.
Define system boundaries, data flows, interfaces, security, failure modes, tradeoffs, and an architecture teams can evaluate.
Turn the highest-risk assumptions into a working path through prototypes, integrations, production software, and delivery mechanisms.
Connect the solution to operating ownership, observability, feedback, documentation, and measurable workflow outcomes.
AI & Data × Design
Designing permission-aware retrieval, evidence sufficiency, provenance, evaluation, and abstention as parts of one production system.
Read the architecture review ↗Topics are organized by technical domain and by the kind of engineering problem being solved: build, scale, migrate, optimize, harden, design, or strategize.
Distributed systems, APIs, databases, system design, and explicit tradeoffs.
02LLMs, RAG, agents, ML systems, pipelines, evaluation, and AI infrastructure.
03AWS, cloud architecture, Kubernetes, delivery systems, and developer platforms.
04Resilience, performance, scalability, observability, capacity, and cost.
05Architecture reviews, technical strategy, standards, migrations, and influence.
06Discovery, rapid prototypes, enterprise integrations, AI deployment, and adoption.
Technical essays spanning production AI, distributed systems, cloud and platform architecture, technical leadership, and forward-deployed engineering—framed around constraints, failure modes, and operating boundaries.
Reliability & Scale × Harden
Retries, idempotency, durable state, partial execution, and failure recovery.
AI & Data × Design
Identity, evidence, orchestration, action, review, and evaluation as system boundaries.
Forward-Deployed Engineering × Build
A field-oriented approach to discovery, vertical slices, stop criteria, and productization.
Technical Leadership × Strategize
Making ownership, interfaces, constraints, and operating models part of architecture.
Data engineering is the center of gravity. AI engineering, software engineering, and technical program leadership extend that foundation when a solution crosses team, workflow, and system boundaries.
The writing on this site supports that work by making my assumptions, architecture choices, failure modes, and tradeoffs visible. It is evidence of how I reason—not a substitute for delivery experience.