Projects

Disciplines, tools & capabilities.

The craft behind the companies — and what I bring to a project on its own: composites, machining, laser work, CAD and visualization, design-to-build packages, and a pile of one-off tools and fixtures.

Discipline · Tooling

Tools, Fixtures & One-Offs

A lot of engineering is the small, specific tools nobody sees — a fixture that makes a hard job repeatable, a machine that does one thing perfectly. Here's a run of them, designed and built across the years for different shops and clients.

Static mixer
Static mixer
Static mixer
Static mixer

Static Mixer

A mid-sized static mixer I designed for a silicone manufacturer so they could stop mixing by hand. I did the design and the laser etching; our in-house shop fabricated it.

Design + Etching
Interference-fit assembly press
Interference-fit assembly press

Interference-Fit Press

A press that interference-fits three over-molded pieces of a medical part together in one clean operation — the assembly step, not the molding.

Design + Build
Aluminum up-feed saw
Aluminum up-feed saw
Aluminum up-feed saw
Aluminum up-feed saw

Aluminum Up-Feed Saw

A rebuild of master machinist Andries Breedt's pneumatic up-feed saw for cutting aluminum to precise lengths.

Rebuild
Counterweighted lifting tool
Counterweighted lifting tool
Counterweighted lifting tool
Counterweighted lifting tool

Counterweighted Lifting Tool

A counterweighted "rafter lifter" that lets one person raise heavy material up and into place safely.

Design + Build
Machined microphone housing
Machined microphone housing
Machined microphone housing
Machined microphone housing

Microphone Housing

A machined mic housing in copper and black nickel for a sound engineer — I proposed fifteen-plus designs, machined them, and did all the laser etching myself.

Design + Machining
Foam R&D prototype
Foam R&D prototype
Foam R&D prototype
Foam R&D prototype

Foam R&D Prototype

A quick prototype shaped in foam — the fast, cheap way to test a form before committing to tooling.

Prototyping
Boeing brake-sleeve removal tool
Brake-sleeve tool FEA

Boeing Brake-Sleeve Tool

A tool I led the design of for Boeing that pulls a 737 brake sleeve without damaging it — solving a problem their hydraulic tool couldn't. (Design and FEA shown.)

Design Lead
Silicone sleeve drill fixture
Silicone sleeve drill station
Silicone sleeve drill station

Silicone Drill Fixture

A programmed fixture that holds a soft silicone sleeve to its exact shape so it can be drilled to a hard tolerance without distorting.

Fixture Design
Production aids
Production aids
Production aids
Production aids

Production Aids

Small aids for a silicone production line — trimming flash, sampling parts, and checking wall thickness.

Process Engineering
Extrusion drill fixture

Extrusion Drill Fixture

A simple fixture that locates an extrusion against a stop so the hole lands in the same place every time.

Fixture Design
Landing-gear fixture plate
Landing-gear fixture render
Landing-gear fixture render

Landing-Gear Fixture Plate

A ground pedestal-plate fixture that holds awkward landing-gear castings for machining — cheaper and lighter than a solid-block negative.

Workholding
Custom shipping crate
Building a crate
Crate framing
Sealed crate ready to ship

Crating & Shipping

Custom crates for moving oversized things across the country — framed, padded, and packed for flatbed and freight.

Logistics
3D-printed machine guard
3D-printed part

3D Printing

In-house 3D printing for rapid prototypes, custom fixtures, and one-off functional parts.

Capability

Discipline · Composites

Plugs, Molds & Composite Fabrication

Composites run through a lot of my work, and it's a rare skill set because it spans the whole chain. I can take a part end to end — design the mold, program and cut the plug on a CNC router, pull the tool, run the vacuum infusion, and do the cosmetic finishing. Most shops need three different people for that. Here's some of it.

The Space Campers cap plug

The cap plug was too big to fit on the router, and jobbing it out would have cost around $30,000 — so we built it ourselves. We made a 3D puzzle out of MDF, cut the critical surfaces on the router, and skinned the skeleton with routed parts. Then came weeks of hand sanding until the surface was good enough to pull a tool off of.

The cap plug in gloss red gel coat
The finished plug in gloss gel coat, in the booth.
The MDF puzzle skeleton
The MDF puzzle skeleton.
Skeleton with foamed perimeter
Skeleton with the perimeter foamed in.
Building the surface up
Building the surface up — filler over foam.
Primed plug ready to pull a tool
Primed and ready to pull a tool.

Plugs & molds

A lot of composites work is everything that happens before the part — the plugs and molds. I design them, program the CNC, and cut them in MDF or foam, often kitting a large shape out of smaller routed pieces.

Routed MDF ribs racked in the shop
Routed MDF ribs, kitted and racked.
Assembling plug sections
Cutting and assembling plug sections.
MDF plug work
MDF plug work.
Shaping an MDF plug
Shaping a plug.
Mold detail
Mold detail.
Prototype mold work
Prototype mold work.
A prototype mold
A prototype mold.
A 3D-printed plug
A 3D-printed plug.
A foam-core panel blank
A foam-core panel blank.

Vacuum infusion

With a mold in hand, vacuum infusion pulls resin through dry fiber under vacuum for a clean, strong, repeatable part — and a kitted foam core in the middle for stiffness without the weight.

Prepping a mold in the booth
Prepping a mold in the booth.
In the composite shop
In the composite shop.
Mold and layup work
Mold and layup work.
Building a composite part
Building a part.

Composite side work

I take on composite side work too — like laser-cut panels that puzzle together for a local van-build company.

Composite side work for a van builder
Composite side work for a local van builder.
Laser-cut panels that puzzle together
Panels that puzzle together.
Finished composite parts
Finished parts.

Discipline · Machining

Machining & Precision Fabrication

Before I designed parts, I spent years making them — and I still cut my own when a job calls for it. CNC mill and router, lathe, surface grinder to half a thousandth, waterjet, laser, and sheet metal. Knowing what happens to a part on the machine is what makes me better at designing them.

Machining clear acrylic on the router
Machining clear acrylic on the router.
A batch of machined parts
A batch of machined parts.
On the machine
On the machine.
In the shop
In the shop.
Setup and cut
Setup and cut.
Precision work
Precision work.
Machined components
Machined components.
Shop work
Shop work.
Tooling on the bench
Tooling on the bench.

Personal · Laser

Laser Art & Signage

Give me a laser and a sheet of wood and I'll lose a weekend. These are etched and cut pieces — mountain triptychs, signage, and one-off art — made across the businesses and for the fun of it. The same machine that cut Whalebird's tap handles made most of this.

An etched mountain triptych
An etched mountain triptych.
A triptych hung on the wall
A triptych, hung.
Laser-etched work
Laser-etched work.
An etched piece
An etched piece.
Cut and etched
Cut and etched.
Etched detail
Etched detail.
Signage
Signage.
An etched panel
An etched panel.
Laser work
Laser work.
A cut piece
A cut piece.
Etched art
Etched art.
An etched piece
One more.
Laser-etched work
And another.

Capability

Heavy Operations

Across a few careers I've kept ending up responsible for moving things that don't move easily — tanks, machines, oversized loads. At WISErg it was craning bioreactors onto flatbeds; at Whalebird it was threading fermentation tanks through a doorway on two forklifts. You learn to plan the lift, not muscle it.

Moving a tank into the brewery at dusk
Threading a tank into the brewery at dusk.
Craning a tank onto a flatbed
Craning a tank onto a flatbed.
A heavy lift
A heavy lift.
An oversized load
An oversized load.
Rigging heavy equipment
Rigging heavy equipment.
On site
On site.

Personal

The Heat Engine

An after-hours obsession: a heat engine I designed and machined to turn a temperature difference into motion. I laser-cut the turbine, machined the core myself, and chased its efficiency further than I probably should have. It's the honest answer to what I do for fun — if a thing can be made to spin, I want to understand exactly why.

The machined core of the engine
The machined core.
The laser-cut turbine
The laser-cut turbine.
Building the engine
Building it.
A machined component
A machined component.
On the bench
On the bench.
Testing
Testing.
The home shop
The home shop — router and lathe.

Discipline · 3D CAD & Visualization

Modeling, Rendering & Scanning

Everything I build starts in CAD, and a lot of it ends there too — as photorealistic renders that sell a product before it exists, as full models of real buildings, or as 3D scans that turn a physical object back into geometry I can design around.

Photorealistic rendering & animation

Renderings and animations done primarily in SolidWorks Visualize — great for product demonstrations and showing a concept before it physically exists. This is a full animated render of the Space Campers Wedge.

Modeling an entire facility

A local entrepreneur was turning a big building into a public market and needed to show the city what it would become. So I measured the entire facility — down to the last railing — and built a full 3D model of it inside and out, then produced renderings the owner used for permitting.

Rendered building exterior
The building exterior.
Street-level facade render
Street-level facade.
Labeled floor plan render
A labeled floor plan.
The main hall
The main hall.
A vendor stall
A vendor stall.
The food bar and mezzanine
The food bar and mezzanine.
The brewery end
The brewery end.
The taproom
The taproom.
Site overview render
Site overview.
The outdoor patio
The outdoor patio.

3D scanning

3D scanning captures a real object as accurate digital geometry you can build from — reverse-engineer, design around, or render. Here it's capturing a full vehicle body.

Discipline · Design-to-Build

Design-to-Build Packages

Designing a product is only half the job — someone else usually has to build it, and they can only build what's documented clearly. This is the skill of turning a finished design into a complete handoff package: exploded assembly views, every part labeled, a full bill of materials, and step-by-step build instructions, so an outside shop can quote it and build exactly what was designed. Below is a real sample — the full package for a unit I designed.

RFQ cover page with rendered unit
The cover — a complete unit, rendered.
The assembled unit
The assembled unit.
The unit with panels removed
Panels removed — what's inside.
Bill of materials with exploded sub-assemblies
Bill of materials with exploded sub-assemblies.
Step-by-step build instructions
Step-by-step build instructions.

View the full 21-page package (PDF) — the overwhelming, every-part detail, for anyone who wants to go that deep.

Capability · Media

Product & Media Content

Marketing a product is its own craft, and over the years I've made a lot of it — product photography, brand artwork, demo and teaser videos, renders, and animations. This is a teaser we created for the Cap, our Cybertruck camper. The rest runs through everything on the brand pages.

Capability

Startup & Business Development

I think of myself as an engineer first, but building businesses has become as much of my background as building products. Across my own companies I've done the whole arc — financial modeling, raising capital, global sourcing, brand development, and taking a concept all the way to an investor-ready pitch. These days I also advise founders as a mechanical-engineering advisor for the local Small Business Development Center. If you're early-stage and need someone who can speak both engineering and business, that's the gap I'm built to fill.