How an object is born, layer after layer
An FDM printer — fused deposition modeling — works like a glue gun, but instead of glue it pushes a thermoplastic filament through a heated nozzle at around 200°C. The filament melts, exits the nozzle, and deposits onto a heated bed. As it cools, it solidifies instantly.
The movement of the print head follows a precise path, drawn from a digital file. One layer finished, the bed drops by a fraction of a millimeter, and the process starts over. One hundred, five hundred, a thousand layers. In the end you have a three-dimensional object that, just a few hours earlier, existed only as a design on a computer.
Precision is measured in tenths of a millimeter
The thickness of a single layer typically ranges from 0.1 to 0.3 mm. For a 5 mm thick panel, that is about 25-50 stacked layers. For a 15 cm vase, the number rises to several hundred. The choice of thickness is a trade-off: thinner layers give smoother surfaces and finer details, but lengthen print time. Thicker layers speed up the process, but the layer texture remains more visible.
This is where artisanal care comes in. The choice of parameters — temperature, speed, layer height, internal infill — is not an automatic operation. It depends on the shape, the material, the dimensions. Every MaYo piece is tuned to achieve the best balance between visual quality and structural solidity.
Shapes that other technologies cannot make
3D printing does not replace turning or injection molding: it complements them. It creates objects that those methods, by their nature, cannot produce. Hollow shapes with thin walls, internal lattice structures, curves that intersect without interruption. Our geometric vases — like the Heart Shaped Vase and the Star Shaped Vase — with their honeycomb insert, are a concrete example: the internal grid is a structure that is produced in a single print session, without subsequent assembly. The Modern Spiral Vase, with its continuous spiral shape, is a design that traditional turning cannot replicate without complex and costly machining.
From detail to relief: the panels
The ability to control height layer by layer is what makes relief panels possible. In a Witch Hat Atelier panel or a Jujutsu Kaisen portrait, every shade of the image is translated into a different height level. Light areas, high relief. Dark areas, flat. The precision of the minimum layer determines how smooth the visual transition is. The thinner the layer, the more the result looks sculpted rather than printed.
Customization without molds
3D printing does not require molds or dedicated equipment for each new object. Switching from a standard panel to a custom panel with your own image only requires loading a new file. This is why customization is accessible in a way that industrial production cannot match: no startup cost, no minimum quantity, no wait for creating a new mold.
Quality control is artisanal
Every piece that leaves the MaYo printers is inspected before shipping. 3D printing automates deposition, not supervision. Checking that a panel has the right contrast, that a vase has no deformations, that the surface is uniform — all operations that require an experienced eye. The workshop works on every single piece, not on anonymous batches.
FAQ
How thick is a single layer in FDM 3D printing?
Typically 0.1 to 0.3 mm. Thinner layers produce smoother surfaces and finer details, while thicker layers reduce print time.
What materials are used in FDM printing?
PLA, PETG, ABS, ASA, and TPU are the most common thermoplastics. MaYo prints in a wide range of high-quality FDM filaments — all durable materials suited for decoration and everyday use.
Can 3D printing create shapes impossible with other methods?
Yes. Hollow shapes, internal lattice structures, and complex organic geometries are easier to produce via 3D printing than via traditional molding or machining.