← Selected work
CASE STUDY 01 / INFINITUM

A new motor.
A repeatable build.

Turning a PCB-stator motor architecture into a staffed, qualified manufacturing operation—and questioning which operations needed to exist at all.

My roleSenior Manager, Advanced Manufacturing EngineeringFocusNPI · process qualification · team leadership
Concept illustration of an electric motor; not a product photograph.
Concept illustration of an electric motor; not a product photograph.
3Operations eliminated
~12%Assembly time reduction from those removals
12Processes qualified
01 / THE CHALLENGE

Build the process around the product.

Infinitum’s air-core electric motors use a PCB stator. Manufacturing that architecture required developing and proving assembly methods instead of simply adopting an established motor-production line.

I lead advanced manufacturing engineering, managing four engineers across digitalization, process, and manufacturing test and coordinating NPI readiness with engineering, quality, supply, and manufacturing partners. The work was to turn bench-proven methods into an operation with defined routing, fixtures, process windows, operator instructions, and inspectable results.

Explore Infinitum’s motor technology ↗
02 / THE DECISIONS

Make every operation earn its place.

Remove three operations from the build+

The tradeoffKeeping an operation can feel safer than making the case to remove it. It also preserves its time, material, and handling burden.

My responseRemoved an adhesive operation, thermal dispense under the inductors, and an in-process electrical test after the data supported their removal.

What supported the decisionEliminating those three steps reduced assembly time by approximately 12%.

Qualify the process before handing it over+

The tradeoffA method that works at the bench still needs to hold across operators and production conditions.

My responseDefined assembly sequences, fixtures and tooling, and process windows for critical steps. Qualified 12 processes.

What supported the decisionDocumented methods and process limits made the work repeatable and inspectable by the production team.

Pair measurement with a response+

The tradeoffA control chart makes variation visible; the line still needs a defined response when a signal appears.

My responsePut critical characteristics under SPC, with control charts, capability studies, and reaction plans.

What supported the decisionMeasurements were connected to part, station, and recipe through the manufacturing data system, supporting traceability and investigation.

03 / LEADING THE WORK

Connect the team that owns the ramp.

01

Build the operation

Manage four engineers across digitalization, process, and manufacturing test. Own goals, performance reviews, development plans, and work allocation.

02

Align the partners

Coordinated the contract-manufacturing and supplier partners the ramp depended on.

03

Close the loop

Used structured root-cause work to isolate contributing variables and carry corrective actions back into the process.

I co-led two product-line launches, owning process flow, station sequencing, test strategy, and data infrastructure; equipment scope was shared with a peer manager. I also led NPI transfers from the US prototype hub to production in Mexico, with risk planning and readiness gates. I joined Infinitum as Advanced Manufacturing Engineering Manager in October 2023 and became Senior Manager in April 2026.
04 / THE IMPACT

Less work in the build.
More control of the process.

Three operations were eliminated, reducing assembly time by approximately 12%. Twelve processes were qualified. Alongside that process work, I built the business case for an in-house MES and led its delivery across production plants in the US and Mexico.

The assembly-time improvement came from removing those three operations. Total line throughput also depends on the bottleneck, staffing, and yield—a different question from time removed from the assembly route.