A Proposal for Nussbaum22

Ahead of any Phase 1 engagement our team has reviewed the enquiry, the intake form, the discovery call notes and both concept boards. The following is not the Phase 1 output. It is the position our engineering work starts from, set out so you can see we have engaged with the actual product rather than sent a generic scope.

Everything about this product depends on one thing. A passive attachment has to carry a loaded pouch off the edge of a table it was never designed for, hold it reliably through a meal, then release without leaving a mark. Ruling out screws and adhesive means the attachment must generate all of its holding force from geometry, friction, spring force or mass alone. That single decision drives the tooling, the unit cost, the durability and whether the product actually works in a restaurant.

The load itself is modest. A current smartphone is roughly 150g to 250g. The difficulty is that the load hangs below the table surface on a moment arm, which turns a small weight into a real rotational force concentrated at the contact point. The attachment has to hold that force across an unknown range of table thicknesses and edge profiles, on surfaces ranging from oiled oak to laminate to stone, without marking any of them.

Those requirements pull against each other, and that tension is the engineering problem. More clamping force means better grip and higher risk of marking a finished table. A wider table thickness range means a longer clip or more built-in compliance, which means more material and a larger folded footprint. Softer contact materials protect the furniture and reduce the friction available to hold the load. Resolving these trade-offs deliberately, rather than discovering them at tooling stage, is what Phase 1 is for.

The biggest commercial risk at this stage is not manufacturing cost. It is investing in tooling around an attachment concept that later proves incompatible with real-world tables. Tooling is the point at which a wrong decision stops costing a conversation and starts costing money already spent, and it is difficult to unwind. The purpose of doing this work first, and doing it now, is to take that decision on engineering evidence while taking it is still cheap.

The most useful commercial input you can give us, and the one that changes the engineering most, is the price the product is intended to sell at. Designing to a cost is a day one input, not something assessed once the design is fixed. This was raised on the discovery call and it remains the one significant open item on the brief.

It matters because on a product of this type the sell price does not simply set the margin. It sets the specification. The attachment mechanism, the material set, the part count and the tooling commitment all move together with it. A lower sell price forces a lean design: one moulded or formed attachment component, a simple pouch, low part count and tooling kept tight. A higher sell price pays for a more capable attachment such as a sprung or adjustable mechanism, a premium material set such as full grain leather with a machined or plated metal component, and the higher assembly content that comes with them.

Those are not the same product at different margins. They are different engineering briefs, and they lead to different tooling. Committing to the wrong one is expensive to correct once tooling is cut.

We are deliberately not proposing a sell price on your behalf. Establishing what this product can command is a market question for your side, informed by the categories it will sit alongside and the channel you intend to sell through, and any figure we offered ahead of that work would be a guess dressed up as experience. What we need from you is your working number, or a bracket, and the reasoning behind it. Phase 1 can proceed without it and the Indicative Quotation will still establish the cost trajectory either way, but every engineering decision inside the phase is better for having it.

The concept boards set out four attachment routes: an over-the-edge clip, a counterweight sleeve that rests on the tabletop, a spring clamp, and a friction wedge that slides into the gap beneath the tabletop. They are presented as variations of one product. In engineering terms they are four different mechanisms with four different sets of physics, failure modes, part counts, tooling requirements and unit costs.

Our early read on each, to be tested properly in Phase 1:

Converging on one mechanism, or making a deliberate commercial decision to carry two, is the first real engineering job on this project. Carrying more than one to production multiplies tooling, so this decision has direct cost consequences.

One point of clarity on the concept boards. The dimensions, table thickness limits and gap ranges annotated on them read as illustrative rather than engineering-derived. Phase 1 establishes the real figures against measured furniture data and the selected mechanism, and those become the specification.

The product is a hybrid. A soft pouch in leather, canvas, felt or a technical textile, joined to a rigid, sprung or weighted attachment component in plastic, metal or silicone. These are two different manufacturing routes with two different supply chains, and the join between them is a durability point that deserves specific attention. On a product that is opened, loaded, unloaded and folded every day, the interface between soft and rigid parts is a common early failure point.

Material selection also carries a commercial dimension beyond cost. The intended positioning is premium, and on a product this small the perceived quality comes almost entirely from the material and the finish. Leather changes the tooling picture materially, since a leather or textile route may need little or no hard tooling on the pouch itself, while a moulded silicone or plastic pouch does. As part of Phase 1 we can send physical material swatches so the options can be judged in the hand rather than on screen.

Two of the stated requirements sit in tension: hold every current phone size without variants, and be as small and light as possible. Current phones span a meaningful range in width and thickness, and a pouch sized for the largest of them is oversized for the smallest. There are established ways to bridge that gap, including elastic retention, a tapered envelope or a compliant liner, each with a cost and a bulk consequence. Phase 1 defines the target envelope against a confirmed phone size range instead of designing for an open-ended one, and it sets that envelope against the target sell price rather than in isolation from it.

Phase 1 is the first engineering stage of development, not preparation for it. Its purpose is to answer the critical engineering questions at the point where answering them is cheap, before design, tooling and production are committed.

By the conclusion of Phase 1 you will have a selected attachment mechanism supported by engineering reasoning, a confirmed material and construction route, a defined manufacturing strategy, an assessed risk position, indicative unit costs at volume, and a costed stage-by-stage plan for the rest of the development. The fee covers the six deliverables below, which together form the technical foundation for the Route to Market Plan.

Fee: USD 5,000, payable in full on project confirmation.

The Phase 1 fee covers all six deliverables in Section 4. The activities below sit outside this engagement. Where they are needed, they are scoped and costed within the Development Roadmap, or coordinated through approved external partners. Sequencing the work this way keeps unnecessary cost out of the early stages and avoids committing to downstream tooling and production before the fundamental technical questions are resolved.