Maple panel with walnut dowel end-grain circles — the finished bass stand detail

The Bass Stand

A commissioned upright bass display stand

Upright bass f-hole close-up Upright bass bridge detail Upright bass tailpiece detail

Ben needed a sturdy display stand for his upright bass in his living room. Key requirement: stable enough to survive a house party — people dancing, stomping, shaking the floor.

But the real brief was unspoken: this instrument matters. It deserves more than a tripod.

Traditional bass stands are utility-first — collapsible, portable, forgettable. But this bass could live as a sculptural element in the space. So we led with vision instead of function.

Three concepts. Not sketches — fully modeled in Fusion 360, rendered from every angle, engineered to build.

The Owl bass stand design with bass

The Owl

Two curved walnut panels connected by maple dowels. The silhouette reads like an owl — organic curves that echo the bass’s own body.

The Asymmetrical bass stand design

The Asymmetrical SELECTED

A figure-8 profile with offset lobes. The asymmetry creates visual tension — dynamic, alive. Like the bass is being cradled, not just held.

The Voronoi bass stand design

The Voronoi

Organic cell pattern cut through the side panels. The negative space is structural — engineering that happens to be art.

All three share the same DNA: endpin pocket, wood-to-wood joinery, low center of gravity, and 3D-printed contact points in matte black.

We started with the Voronoi — the most complex, most material-removed version — to test strength. How do you test strength? By doing handstands on it.

Plywood base panels, oak dowels, the full Voronoi pattern CNC’d into the sides. If this version could hold a full workout upside down, the other two designs were guaranteed.

Then a second test: a scaled 3D-printed model for vibration and earthquake simulation. Both passed.

Handstand strength test on Voronoi prototype Voronoi pattern workshop prototype 3D printed scale model for vibration testing

It starts with two pieces of raw maple.

You cut them into four. Plane them. Sand them. Run them through until the curl shows up and they’re dead flat. Then you square them — every edge true, every corner 90°. Then you set them on risers, and you wait. Let the wood breathe. Let the moisture equalize.

Raw maple square — the starting material Four maple panels showing figured curl grain CNC work holding with triangular fixtures Four CNC-cut asymmetrical maple panels with dowel holes

The panels are walnut — 38mm thick, CNC-cut to the Asymmetrical profile. The figure-8 silhouette with its offset lobes. Maple dowels at 38mm diameter connect the panels, their end-grain showing as perfect circles on the side faces.

Raw walnut board — close-up of the grain Three walnut strips on the table saw Three walnut dowels in transition from rectangular to round Walnut panels standing on workbench after milling

That’s how a bass stand starts.

The 3D-printed cradle points in matte black PETG — strong enough to handle the instrument, soft enough not to mark it.

Every joint is wood-to-wood. No hardware visible. The stand should look like it grew that way.

The finished Asymmetrical bass stand with upright bass

Ben picked the Asymmetrical. The figure-8 profile with its offset lobes. Walnut panels, maple dowels showing their end-grain as perfect circles on the sides. The bass sits in it like it was always meant to.

Three designs. One choice. Zero tripods.

Labore et Constantia.

Materials

Walnut, Maple, PETG

Joinery

Wood-to-wood, no visible hardware

Client

Ben LaRiviere

Status

Build Complete