Selected work

The programs I’m proudest of, and how I ran them.

FLIGHT-SAFETY REDESIGN / PARKER MEGGITTFLIGHT-SAFETY REDESIGNDELIVERED

A flight-critical failure mode, traced back to our component after years of investigation. An 18-month redesign the customer needed in a fraction of the time. Delivered in six.

$1M
Direct cost each time a field failure pulled an engine off the wing
4mo
Critical design review turnaround, from a January kickoff
6mo
Of daily customer meetings, every workstream running in parallel
$4M+
In replacement costs avoided across the fleet
SCHEDULE COMPRESSION
18 mo plan 6 mo delivered
Original plan
18 mo
Delivered
DELIVERED
6 mo
THE SITUATION

A field failure mode was traced back to our component after years of investigation. I led the root-cause work, including live teardowns with the customer on-site. Every confirmed failure meant an engine pulled off the wing for repair. That was real, direct cost, and very little patience from the operators flying those business jets.

THE ASK

Eighteen months was the honest estimate for the redesign. Due to the critical nature of the failure, the cost of repair, and the implications for the customer, it was imperative to deliver the program as efficiently as possible. The customer requested a critical design review four months from kickoff, and stayed engaged throughout the program to accelerate the review process, including an engineering manager who came on-site three to four times, more than his role would normally call for.

THE INVESTIGATION

I mapped the real critical path myself. The bottleneck wasn’t the engineering. It was long-lead test parts and review cycles that had been built in from a slower prior experience with this customer. Rather than absorb that quietly, I was transparent about where their own review cycles were adding time.

Transparency and a trusting relationship with the customer matter more to an efficient outcome than anything else. Building that rapport is what let us communicate honestly, keep the customer engaged, and cut wasted time out of the review cycles.

THE BET

I chose to qualify by similarity and analysis over new physical testing wherever it was defensible. That meant reconstructing evidence from sparse, disorganized legacy documentation, but it kept the schedule honest instead of padding it with tests we could justify avoiding.

RUNNING IT

Six months of daily customer meetings. Every workstream ran in parallel: testing, documentation, procurement, manufacturing. I was doing the engineering and the program management at the same time.

Much of the job was reading each person in the room, technical and non-technical, internal and customer-facing, and adjusting how I communicated so people felt included and bought into the approach and the overall outcome of the project.

THE OUTCOME

Delivered in six months. More than $4M in avoided replacement costs. Just as important, the customer relationship came out of a genuinely stressful program stronger and more trusting than it started.

Parker Meggitt · 10/2022–10/2025
HYPER-ELASTIC FOAM TEST BED / LOS ALAMOS NATIONAL LABORATORYHYPER-ELASTIC FOAM TEST BEDDELIVERED

While at Los Alamos National Laboratory, our group was approached by another group at the lab that needed a testing system developed for a material characterization data collection project. I delivered the complete system, from the defined requirements to the first round of usable data.

Full System
Requirements to first data. Test bed design, instrumentation, data acquisition, software, fabrication, assembly, and testing
Team Created
Expertise pulled together from across the lab including experts in design, fabrication, procurement, instrumentation, and software
First Data Delivered
Initial testing completed on schedule with real measurements delivered for model validation
THE ASK

Development and fabrication of a full test system for material characterization, enabling data collection to understand how hyper-elastic foam behaves dynamically (under vibration and controlled preload) and to validate theoretical material models.

THE SYSTEM

I owned the path from requirements to hardware to testing. That meant coordinating the test bed design effort with a design engineer, fabrication with an external machine shop, and developing the instrumentation strategy with National Instruments.

THE TEAM

Prior to this project, the required expertise did not exist within a dedicated team. I pulled together a team of experts from across the lab including design, fabrication, procurement, instrumentation, and software. For the development of LabVIEW code needed for conducting testing, I proposed a partnership with another group at the lab that needed the work as much as we needed the expertise.

RUNNING IT

To ensure a successful outcome, I emphasized transparency and partnership with the requesting group to promote alignment throughout the project. I also managed the schedule, risk/mitigation tracking, and the critical path.

Without the team that was built, and the way we collaborated and communicated transparently, this outcome would not have been possible.

THE OUTCOME

The test system was built, assembled, and initial testing conducted within the proposed schedule and budget. We completed the first round of preliminary testing, giving the group real measurements to validate their models against.

Los Alamos National Laboratory · 04/2019–09/2020
RECORD COLLECTIONS / FULL-STACK APP
Screenshot of the Record Collections vinyl record collection app landing page
BUILT SOLO

Built to solve a real problem: never knowing which vinyl records friends and family already owned or wanted for gifts. Built solo in Next.js, React, and TypeScript, under the mentorship of a senior full-stack engineer who reviewed every PR.

I learned the actual mechanics of software delivery, not just the theory: branching, PR review, iteration, merge and squash workflows.

R&D100 AWARD / POPULAR MECHANICS
The patented 3D-printed tamper-evident container with inlaid fiber optics
RECOGNIZED WORK

A patented, 3D-printed tamper-evident container with inlaid fiber optic, designed and developed solo at Los Alamos National Laboratory.

Later recognized with an R&D100 Award and featured in Popular Mechanics, both after I’d moved on to grad school (delayed by patent filing timing, though the work itself was completed during my time there).

Los Alamos · 04/2019–09/2020Read the feature