INDEPENDENT THINKING. CONNECTED WORK.

A world of
possibility.

I’m Casey. I connect AI, automation, and security to build systems with intention.

Explore the work. Follow the connections.

↗FEATURED COLLABORATIONDiscover VetTrellis01
HUMAN-DIRECTEDAI-ASSISTED

Drag the red handle to explore.

Drag any direction. Tap to turn.
Arrow keys rotate · Home resets.

Tap a project to open its story
List view ↗
THE PROJECT INDEX✕

Choose a destination.

Eight connected stories. Different problems, shared principles.

THE PERSON BEHIND THE SYSTEMS✕

Curiosity.
With a control plane.

I’m Casey Knott. My work lives where AI engineering, automation, and cybersecurity meet.

I define the architecture, set boundaries, direct AI assistants, test what they produce, and make the decisions about what is ready to ship. The tools accelerate the work. The judgment stays human.

01

Make the boundary explicit.

Give a system the authority it needs, and a clear place to stop.

02

Evidence before confidence.

Validate the result independently of the tool that generated it.

03

Build for the handoff.

Preserve context, clarify ownership, and make change reversible.

Explore independent products, a personal security lab, a professional team contribution, and a clearly identified design concept. Each story credits the work and its scope.

Find me on GitHub ↗
↖ Back to worldAll projects ↗

Endpoint Triage.

A Hyper-V lab built through PowerShell, configuration checks, and concrete troubleshooting—the foundation for a proposed AI-assisted endpoint investigation.

Casey's role

Lab provisioning, troubleshooting & verification

SYSTEM / CYBERSECURITY LAB
✳

A verified lab foundation for an endpoint-triage architecture.

HUMAN DIRECTION → CONSIDERED SYSTEMS
THE ENGINEERING QUESTION

Build and verify the lab before making claims about the agent it is intended to host.

01 / PROBLEM & CONSTRAINTS

A reliable experiment starts with a reliable environment

The endpoint-triage idea is to use AI to help organize Windows evidence while leaving response decisions with a person. Before evaluating that idea, Casey needed a reproducible home-lab environment whose actual configuration could be inspected.

This case study centers on the verified lab work: Hyper-V provisioning, PowerShell troubleshooting, and configuration checks. Windows event logs, Defender, and Sysmon were intended evidence sources for later triage work. Their operational use by a completed agent is not established here.

02 / CASEY’S CONTRIBUTION

Configure, troubleshoot, then verify

Casey worked through the VM setup and inspected the resulting PowerShell output. That evidence confirms a Generation 2 Hyper-V VM with four virtual CPUs, dynamic memory, Secure Boot, a virtual TPM, installation media, and checkpoint configuration.

The demonstrated contribution is environment engineering and verification. AI-assisted setup guidance can help propose commands, but the meaningful evidence is the state those commands actually produce. Casey inspected that state as part of working through the setup.

03 / LAB ARCHITECTURE

A foundation for controlled evaluation

01Provision VM
02Inspect configuration
03Resolve setup issues
04Prepare for evaluation

Hyper-V provides the virtual machine; PowerShell provides a repeatable way to configure and inspect it. Secure Boot and vTPM settings establish parts of the guest’s security configuration, while CPU, memory, installation media, and checkpoint settings define the environment being prepared.

Provisioning, guest readiness, and application behavior are separate layers. Inspecting the VM’s settings establishes a foundation for the experiment; evaluating telemetry collection and model behavior belongs to the later agent work.

04 / CONCRETE TROUBLESHOOTING

Inspect the result, not just the command

One setup problem came from malformed storage-path construction. Casey resolved the path construction and inspected the resulting configuration instead of assuming that the intended command represented the final state. This is a practical example of turning a provisioning error into a verification step.

Guest startup also required investigation after the optical-media boot prompt was missed and the VM attempted network boot. Separating that boot behavior from the VM’s configured media helped narrow the problem to the installation sequence rather than treating every startup failure as a broken virtual machine.

05 / AI & CYBERSECURITY PRACTICE

Keep the evidence boundary visible

The work exercises secure lab configuration, reproducibility, and hypothesis-driven troubleshooting. Configuration output supports claims about the VM. Keeping that evidence separate from assumptions about the guest or a future agent is part of the security practice.

The intended triage direction retains human approval for remediation. That is a design boundary for future evaluation, not a claim that operational approval controls or an adversarial test suite have already been implemented.

06 / VERIFIED OUTCOME

Provisioned environment, bounded claims

The supported outcome is the provisioned Hyper-V VM, inspected configuration, storage-path repair, and boot troubleshooting. The record does not establish deployed Sysmon collection, operational Defender automation, incident detection, triage accuracy, or autonomous remediation.

07 / LESSONS & SKILL DEVELOPMENT

Make verification part of setup

Repairing the path and checking the resulting VM configuration demonstrates PowerShell troubleshooting and virtualization skills. Investigating the boot sequence demonstrates the value of separating an observation from an initial explanation.

The broader lesson is methodological: establish the environment before evaluating the agent. A reproducible foundation and an honest account of what was verified are prerequisites for meaningful AI-security testing.

Disciplines & tools
Hyper-VPowerShellVM configurationVerification

Home-lab provisioning and architecture work. Operational AI triage and endpoint-tool deployment are not claimed.

↖ Return to the world Keep exploring