Technical Modeling Standards & Manufacturing Methodologies

01. Top-Down Master Sketch Architecture (Design Agility)

  • The Methodology: I utilize external sketch scaffolding and skeleton modeling to drive complex, multi-fixture architectural assemblies from a single source of truth.

  • The Shop-Floor Impact: Client design intents and site conditions change constantly. By anchoring an entire project to a master sketch scaffold, global adjustments to overall heights, wall angles, or architectural reveals can be executed using a small set of 2-4 master sketches. Downstream 3D models, component locations, and panel splits update instantly across hundreds of parts without breaking assembly mates or crashing the feature tree.

01. Top-Down Master Sketch Architecture (Design Agility)

  • The Methodology: All critical manufacturing dimensions—such as sheet good thicknesses, dado depths, edgebanding offsets, and reveal tolerances—are driven by global equations and variables rather than static, hardcoded values.

  • The Shop-Floor Impact: Material supply chains fluctuate. If a production floor must suddenly pivot from a true 0.750" sheet good to a 23/32" (0.718") substitute, hardcoded models require hours of tedious, error-prone part remodeling. By linking material attributes to global equations, I can update the sheet thickness for an entire multi-fixture project in 10 seconds, ensuring flawless, precise CNC joinery fits on the shop floor every time.

03. Design Library Automation & Smart Components (Velocity)

  • The Methodology: I have engineered and maintained a proprietary, parametric drag-and-drop component library containing pre-configured hardware, specialty fasteners, and recurring sub-structures.

  • The Shop-Floor Impact: To maximize drafting velocity and eliminate human error, standard shop hardware should never be built or mated from scratch. My smart library allows me to drop complex hardware (like concealed hinges, heavy-duty drawer slides, tabs and dados, pilot holes, or specialized fastening systems) directly into an assembly. The components automatically calculate clearances, adapt to the surrounding panel thickness, and instantly generate the exact CNC hole patterns and machining clearances required for production.

04. Advanced Feature Manager Tree Architecture (Collaboration Ready)

  • The Methodology: I enforce strict folder organization, intuitive component naming conventions, and aggressive feature-tree isolation techniques within all SolidWorks assemblies.

  • The Shop-Floor Impact: Remote engineering requires seamless, lightweight data hand-offs. My models are systematically grouped into logical sub-assembly folders (e.g., [Structural-Blocking], [Finished-Casework], [Hardware], [CNC-Exclusions]). This keeps assemblies lightweight for remote networks and ensures that any CNC programmer, estimator, or shop foreman can open, isolate, and interpret the data without confusion.

My Approach

Every custom fixture is a unique prototype, but the engineering logic behind it shouldn't be rebuilt from scratch. By combining programmatic 3D scaffolding with standardized data architecture, my approach eliminates guesswork and manual redundancies before a project ever reaches production. This strict modeling discipline ensures that design changes pass seamlessly down the line, submittals stay ahead of schedule, and the shop floor receives lightweight, optimized data ready for flawless execution.

Simple ideas

Through every step, I focused on staying true to my values and making space for thoughtful, lasting work.

Lasting impact

I build with clarity, act with integrity, and always stay curious.