Testing ideas in-house doesn't just save time. It makes the product better.

Every project brings its own set of questions. That's where prototypes and mock-ups come into play. Sometimes it's a quick model to evaluate proportions. Sometimes it's a functional prototype to test how a product behaves in the field. Other times it's a fixture or jig to validate a manufacturing process before it reaches the factory. The prototype isn't the goal. It's the tool I use to answer the question and move the project forward.

A concept I can hold on Wednesday teaches me more than a month of computer work.

Manufacturing influences design decisions much earlier than people often expect. Understanding how a product is built opens up different ways of solving a problem. Pattern development, sewn construction, RF welding, compression-molded foam, laser cutting and etching, heat-transfer labeling, and textile bonding are all tools I draw from depending on what the project requires. Sometimes the manufacturing process itself becomes the feature that makes a product different.

Development doesn't stop when the prototype works. Tech packs, BOMs, points of measure, QA/QC documentation, costing, and factory communication all exist to make sure the product arriving off the production line matches the one that was developed. Working closely with manufacturing partners through sampling and production helps preserve the design intent and catch problems before they become expensive.

Fit is developed through iteration. Internal fit sessions, competitive benchmarking, and repeated refinement help build products that work for a broad range of users. From there, the challenge becomes scaling that work across different sizes, volumes, genders, and colorways while keeping the fit, construction, and manufacturing quality consistent from one SKU to the next.

Products need to perform in the field, but also meet requirements defined by testing standards and regulations. Understanding those requirements early helps avoid costly changes later in development. From material selection to lab testing and validation, I work through the compliance requirements alongside the rest of the product development process.

Changing materials is rarely as simple as swapping one fabric for another. A new material needs to maintain the performance, durability, and user experience that made the original product successful. Material transitions require balancing measurable performance through testing with how a material actually feels and performs in real-world use.

Sometimes the existing solutions don't quite solve the problem. In those cases, developing a new mechanism, tool, or construction can create a better outcome. From patented components to purpose-built manufacturing tools, I enjoy finding simple solutions to problems that don't have an obvious answer.