HM

Work Experience

Process Improvement Engineer Intern

Synergy Tooling Systems · Jan 2022 – Aug 2022 · Hybrid

Synergy gave me a ground-level view of real manufacturing. I learned what it takes to hold tolerance in production: selecting workholding and fixturing, dialing in feeds and speeds, validating CAM toolpaths and G-code, and keeping both machines and people moving. I led the development and implementation of braille tooling in house, owning the flow from problem to finished parts. That meant turning parametric CAD into CNC setups, writing clear setup sheets, and building in process checks and first article inspection to catch drift. It also sharpened my design skills, because I had to make sure everything was genuinely machinable and producible, with proper tool access and workholding, sensible tolerances, sane stock removal, and efficient cycle time. Since manufacturing was new to me, the learning curve improved my problem solving; I learned the why behind process decisions, how to debug issues at the machine, and how to coordinate with machinists, engineering, and customer service so throughput stayed predictable.

I also learned how to connect people with clear information. I produced 3D visuals that explained tool function to customers, and I documented a tools and parts manual that gave customer service and engineering a shared vocabulary for parts and assemblies. The experience improved my skills and understanding across the entire path from identifying problems to getting parts into production to supporting customer service, and it sharpened my judgment on quality, process capability, and the tradeoffs that keep a line running.

Selected Work

  • Led the in-house braille tooling pipeline: parametric CAD (SolidWorks), CAM (Fusion 360), posted and verified G-code; authored setup sheets, first-article inspection, and in-process checks.
  • Designed and validated workholding and fixturing for small features; tuned feeds and speeds and toolpaths to hold tolerance and stabilize cycle time.
  • Derived equations for helical motion and aligned G-code interpretation with machine control so helical toolpaths executed correctly, collaborating with another engineer.
  • Helped convert a CNC vacuum table for 3-axis milling to accelerate in-house iteration.
  • Built and standardized test stands (deflection, pressure, push/pull) with documented procedures to improve repeatability and data quality.
  • Established a rubber material analysis workflow for supplier qualification with recorded acceptance criteria.
  • Improved laser-cut nesting and process parameters, reducing material waste cost by 33%.
  • Authored a tools and parts manual that linked part numbers, drawings, and assemblies so customer service and engineering shared the same references.
  • Created short 3D product visuals to explain tool function and tolerances for customers and improve understanding of requirements.
  • Delivered SolidWorks and Fusion 360 training; produced quick-reference guides on modeling and CAM basics.
  • Maintained shop-floor procedures (startup, shutdown, inspection checkpoints) to keep throughput predictable and reduce downtime.

Product Engineer Intern

Multi Parts · May 2021 – Aug 2021 · In‑person

Multi Parts was my first real step into professional engineering. I learned how requirements become pre‑production plans, how to design and run meaningful tests, and how to document procedures so results are repeatable and defensible. I designed a rotation test machine for throttle‑position and fuel‑sender sensors that operated inside a thermal chamber from −40 °C to 82 °C (−40 °F to 180 °F). Writing the procedures and running the trials taught me to control variables, validate instrumentation, and separate signal from noise so decisions are grounded in data.

The work sharpened my critical thinking and problem solving. I became more systematic about analyzing failure modes and tolerance stacks, weighing manufacturability and cost, and using inspection to gate releases to production. I also strengthened my documentation habits with clear specs, setup sheets, and reports that make tests reproducible. Most of all, I’m grateful for the chance to learn from the team; the experience deepened my understanding of engineering and the design process and made me genuinely excited to keep learning and building.

Selected Work

  • Designed and built a rotation test rig for throttle‑position and fuel‑sender sensors for use in a thermal chamber (−40 °F to 180 °F), supporting multi‑million rotation endurance runs; documented instrumentation checks, maintained run logs, and iterated fixture alignment from early trials.
  • Standardized MAP sensor test procedures with clear pass/fail thresholds and documentation so results were consistent and reviewable.
  • Modeled a production‑ready rack‑and‑pinion and designed associated tooling/fixtures used in the manufacturing handoff.
  • Performed incoming inspection on air‑intake hoses prior to release: dimensional checks, leak checks, nonconformance notes, and corrective‑action follow‑ups.
  • Conducted patent analysis on oil pumps and supported fuel‑pump testing with data collection, plots, and concise technical summaries for engineering reviews.
  • Delivered SolidWorks training and quick references; improved drawing templates and part libraries to speed handoffs.
  • Wrote concise engineering reports that tied requirements to test evidence and flagged risks for design reviews.