How early user feedback became formal engineering inputs for Everbowl. Introduction A product rarely fails the same way it fails on a test bench. In the lab, we control the load, the environment, the assembly process, and how the product gets handled. In someone's home, none of that
How real interaction with Everbowl changed the way we thought about clearance, wear, and durability. Designing a mechanical product around a spec is fairly straightforward. Designing one around how people, or animals, actually interact with it is a lot harder. A lot of our mechanical assumptions for Everbowl came from
An honest look at how simulation guided Everbowl's mechanical development, and where physical testing forced us to rethink the model. Introduction Simulation is one of the most useful tools in hardware development because it lets you ask questions before you've manufactured anything: where will this deform,
How clear engineering documentation prevented costly misinterpretation while taking Everbowl from design files to physical hardware. Introduction A CAD model shows what a part looks like. A manufacturing drawing has to communicate what the part actually needs to be. That difference mattered more and more as we moved Everbowl from
How asking "What are we actually testing?" made Everbowl prototypes more focused, faster, and more useful. Introduction A prototype is easy to build. A useful one is a lot harder. Working on Everbowl taught us that a prototype's value has nothing to do with how close
How thoughtful choices in color, material, finish, and light shaped Everbowl's identity long before its technology came to life. Introduction When people pick up a product for the first time, they don't start by evaluating its spec sheet. They make an almost instant judgment based on
How our "Stage 2.5" design freeze helped eliminate scope creep while keeping Everbowl moving toward production. Introduction Every hardware team eventually has to answer a hard question: are we done designing? The temptation is always one more improvement. A bracket that could be a little stronger. A
How aligning mechanical, electrical, and firmware engineering early helped us reduce redesigns, shorten decision cycles, and build a more reliable product. Introduction Most engineering problems don't belong to a single discipline. A mechanical engineer designs a bracket that blocks a connector. An electrical engineer relocates a PCB and
How thoughtful design reduced repair time, simplified maintenance, and improved the ownership experience. Introduction Most hardware gets designed around one question: how do we assemble this? A much smaller number of products get designed around the equally important question of how do we take it apart. For consumer products, serviceability
Why a part that survives a load test can still fail in the field, and how designing for wear, not just strength, improved the long-term reliability of Everbowl. One of the first questions a mechanical engineer asks about a part is "will it break?" FEA, hand calculations, and