Paul Hogan / high school systems engineer

Building AI infrastructure, security systems, and robotics-oriented autonomy.

AI Systems Engineer & Robotics Developer

I work on the unglamorous parts of advanced systems: orchestration, telemetry, deployment, operator workflows, and the reliability problems that show up when software has to coordinate with the real world.

Systems

Agent runtimes, orchestration, Dockerized infrastructure

Security

Anti-cheat telemetry, detection pipelines, review systems

Autonomy

Robotics, reinforcement learning, perception, control

About

Self-taught systems engineering with a robotics and autonomy trajectory.

I am a high school engineer focused on the kinds of problems usually found in startups, labs, and real infrastructure: agents, security systems, orchestration, and deployment.

Systems-first builder

I think about software as runtime behavior, deployment constraints, observability, and operator trust, not only features on a screen.

Distributed AI infrastructure

My strongest work lives where agents, workers, data, tools, and orchestration boundaries need to coordinate reliably.

Autonomy direction

Long-term, I want to work on advanced robotics and autonomous systems that combine perception, control, security, and human-machine teaming.

Selected Work

Case studies in AI infrastructure, security, hosting, and systems engineering.

The projects below are presented as engineering systems: what they coordinate, where they run, what constraints they deal with, and why the architecture matters.

case file / Security systems / anti-cheat infrastructure

SentinelAC

AI-assisted anti-cheat and detection infrastructure for multiplayer game environments.

SentinelAC combines telemetry collection, heuristic detection, backend enforcement, and machine-learning experimentation through AI Internal-Cheat Detection (AIICD). The work spans client/server security assumptions, event pipelines, false-positive tradeoffs, and operator-facing review workflows.

TypeScriptNode.jsPythonLuaMongoDBDockerML pipelines
Open case study

architecture sketch

Node 01

Game telemetry

Node 02

Detection services

Node 03

AIICD analysis

Node 04

Operator review

evidence

Distributed detection backend

AIICD machine-learning experiments

Operator review and moderation workflow

case file / Distributed AI / enterprise agent platform

CaroNet Workforce

On-prem AI agent platform with distributed orchestration, local LLM infrastructure, and Dockerized workers.

CaroNet Workforce is an agent platform designed around local deployment, orchestration, worker coordination, and practical business automation. It explores how AI systems can run near private data while remaining observable and operationally manageable.

TypeScriptNext.jsNode.jsDockerWebSocketsLocal LLMsMongoDB
Open case study

architecture sketch

Node 01

Admin surface

Node 02

Orchestrator

Node 03

Worker nodes

Node 04

Agent tools

evidence

On-prem worker orchestration

Dockerized agent runtime

Local-first AI infrastructure

case file / Hosting / payments / automation

CaroNet InfraHost

Hosting platform work covering active customers, game server and web hosting, Stripe payments, and automatic server setup.

InfraHost focuses on practical hosting operations: customer-facing plans, payment flows, automated provisioning, and server lifecycle work for game and web infrastructure.

Node.jsStripeLinuxDockerNetworkingWeb hostingGame servers
Open case study

architecture sketch

Node 01

Customer portal

Node 02

Stripe billing

Node 03

Provisioning

Node 04

Hosted workloads

evidence

Active customer operations

Stripe payment integration

Automated provisioning

case file / Systems engineering / deployment

Infrastructure / Networking Projects

A collection of orchestration, networking, Docker, and AI infrastructure experiments.

This work includes deployment automation, service coordination, networking configuration, and infrastructure patterns that support AI systems and production-style applications.

DockerLinuxNetworkingNode.jsReverse proxiesCI/CDMonitoring
Open case study

architecture sketch

Node 01

Network edge

Node 02

Services

Node 03

Containers

Node 04

Observability

evidence

Service orchestration

Networked deployments

AI infrastructure support

Technical Skills

A practical stack for building and operating real systems.

Languages

TypeScriptJavaScriptPythonLuaC++ fundamentalsSQL

AI / ML

AI agentsLocal LLMsPrompt/tool systemsML experimentsReinforcement learning study

Infrastructure

DockerLinux serversReverse proxiesOn-prem deploymentService orchestration

Robotics

Autonomy conceptsPerception systemsControl loopsSimulation workflowsROS interest

Backend Systems

Node.jsNext.jsWebSocketsREST APIsMongoDBAuth flows

Networking / Security

Telemetry pipelinesAnti-cheat systemsModeration toolingThreat modelingNetwork services

Cloud / DevOps

CI/CDStripe integrationHosting opsMonitoringAutomated provisioning

Leadership

Large-scale community operations with technical responsibility.

Beyond code, I have helped lead operations inside a 100,000+ member online technical and gaming community, where tooling, moderation systems, uptime, and staff coordination matter.

100,000+ member operations

Experience coordinating people, systems, procedures, and escalation paths at a scale where process quality is visible quickly.

Moderation and trust systems

Work around moderation infrastructure, abuse response, staff permissions, and community safety workflows.

Technical coordination

Bridging infrastructure, staff leadership, product decisions, and operational needs into systems that people can actually use.

Research Interests

Toward autonomous systems that can operate in complex physical environments.

My long-term interests sit at the intersection of robotics, distributed AI, security, and operator-in-the-loop autonomy.

Autonomous robotics

Military robotics

Distributed intelligence

AI agents

Reinforcement learning

Perception systems

Human-machine collaboration

Defense technology

Operating Thesis

Engineering direction

The common thread is building systems that sense, decide, coordinate, and act under real constraints.

Make autonomy reliable enough to leave the lab.

Move AI systems closer to real operators and real infrastructure.

Treat security, observability, and deployment as core engineering surfaces.

Contact

Professional contact and project links.

For engineering schools, labs, technical recruiters, and collaborators interested in AI systems, robotics, security, or infrastructure work.