AI security, platform delivery, architecture

I make complex systems easier to ship, inspect, and secure.

Computer Science graduate from Arizona State University with experience across cloud delivery, security engineering, model-backed product workflows, Kubernetes operations, and the evidence trail that makes a system trustworthy after it reaches production.

Read by operating lane

Each lane points to a public-safe artifact that shows the shape of the work, not just a keyword list.

working profile

A systems engineer with a security habit.

The common thread is operational clarity: know the boundary, ship with rollback, observe the failure path, and write the artifact clearly enough that another engineer can act on it.

Secure model workflowsAI control planes
Release and rollbackK8s delivery
Evals, cost, failure reviewLLMOps traces
Scoped security proofTriage-ready evidence

Where I create leverage

I am strongest on systems where reliability, security, and product delivery are tangled together: AI tools with real permissions, platform changes with real blast radius, and architecture work that must survive implementation.

  • Capability

    AI Systems Engineering

    I treat model-backed features like production software: inputs are bounded, tool calls are governed, failures are observable, and releases have rollback paths.

    • LLM gateway design
    • Eval and trace review
    • Tool permission models
    • RAG failure controls
  • Capability

    Application and Cloud Security

    I move security work past scanner output by mapping the boundary, proving impact carefully, and translating findings into controls teams can actually ship.

    • Threat models
    • Access-control matrices
    • Hardening plans
    • Remediation notes
  • Capability

    Platform and DevOps

    I focus on the operating details that keep services reliable: deployment hygiene, Kubernetes ownership, rollback discipline, logs, metrics, and runbooks.

    • Kubernetes handoff
    • CI/CD release gates
    • Observability maps
    • Incident checklists
  • Capability

    Solution Architecture

    I turn ambiguous requirements into service boundaries, identity flows, data movement notes, rollout plans, and tradeoffs that engineers can build from.

    • System context maps
    • ADRs
    • Control registers
    • Production handoff

selected work

Artifacts that show how the thinking works.

These are intentionally sanitized, but they are written like real working documents: what problem exists, what boundary matters, what evidence proves it, and what a team should do next.

  • secure AI architecturepublic-safe

    AI Security Control Plane

    A production-oriented design for routing model traffic through identity-aware policy, retrieval checks, tool permissions, eval gates, logs, and replayable incidents.

    Frames AI work as an operating system, not a prompt demo: every request has context, every tool action has a permission boundary, and every failure leaves evidence.

    Boundary: Architecture is representative and sanitized. It does not publish private prompts, datasets, customer data, internal controls, or unsafe abuse detail.

    AI securityLLMOps
    Open artifact
  • platform deliverypublic-safe

    Kubernetes Delivery Platform

    A delivery model for services that need predictable builds, Kubernetes readiness, progressive rollout, observability, ownership, and rollback instructions.

    Makes release safety concrete: a service is not production-ready just because it deploys. It must be observable, recoverable, owned, and easy to reason about during failure.

    Boundary: No private cluster names, customer services, credentials, environment details, or internal network diagrams are included.

    KubernetesCI/CD
    Open artifact
  • authorized security researchpublic-safe

    Pentest Evidence Workflows

    A report-building workflow that turns scoped testing into defensible evidence: request pairs, object-boundary checks, denied controls, impact notes, and remediation language.

    Shows practical security judgment: boundary proof, impact clarity, false-positive reduction, and remediation guidance matter more than raw scanner output.

    Boundary: Authorized testing only. No private target details, unsafe reproduction detail, secrets, customer data, or risky step-by-step instructions.

    PentestHackerOne
    Open artifact
  • model operationspublic-safe

    MLOps and LLMOps Observability

    An operating model for model-backed products: trace fields, evaluation checkpoints, prompt and retrieval release notes, cost visibility, latency budgets, and incident review.

    Bridges ML delivery, platform engineering, and security so model behavior can be measured, debugged, governed, and improved after it leaves a notebook.

    Boundary: Examples are synthetic and sanitized. No private prompts, datasets, user conversations, internal traces, or customer content are published.

    MLOpsLLMOps
    Open artifact

resume signal

Production-shaped background

Recent work is framed around ownership, control design, observability, release safety, and handoff.

2024 - 2025

Cybersecurity Engineer, Twilio

Security engineering work across application flows, cloud risk, control design, and evidence handling, with emphasis on turning technical findings into remediation paths engineers could own.

2023 - 2024

DevOps Engineer, Dyson

Cloud and delivery work around deployment pipelines, Kubernetes operations, build hygiene, observability, and the production habits that make services safer to change.

2024 - Present

Vulnerability Researcher, Bug Bounty and HackerOne Programs

Authorized vulnerability research outside day-to-day work, focused on access-control boundaries, mobile/API behavior, auth state transitions, and proof packages that can survive triage.

resume summary

The short version