6061 anodized aluminum milled from solid
That is why I chose this material
For these headphones, I never considered using any material other than genuine metal. While some modern resins offer excellent structural rigidity, I chose to construct the headphones entirely out of metal, even for components where metal wouldn’t have had a direct functional advantage. Simply put, I didn’t want a single square millimeter of plastic on these headphones. I could have used magnesium, but after a careful cost-benefit analysis, I opted for premium 6061 aluminum, milled from solid and anodized. This is a well-established choice in high-end headphones, and I didn’t invent anything new—rather, I used what was technically appropriate to ensure maximum torsional rigidity: metal. A very hard wood could have been an option, but I sought harmony among the various components, and building the headband mounts out of wood would have been a mistake. At that point, it would have been better to make them out of plastic and settle for compromises. Why should I have done that? Metal, please!
Among the possible metals, the choice came down to titanium, magnesium, and high-quality aluminum. I ruled out titanium due to its excessive specific weight and dismissed magnesium, despite being the lightest metal, because it didn’t prove advantageous in my cost-benefit evaluation. In the end, 6061 aluminum won the selection.
acoustic chamber
ventilation openings
freedom of choice
adjustment possibilities
In the first pair of headphones I created, I used a knob that, when tightened, allowed me to secure the vertical position of the ear cup. In this iteration, I aimed to improve upon that aspect by designing a system that employs a small metal piston located within the mounting plate of the headband. This system features a spherical end that, when pressed against a custom-machined notched pin, creates a closely spaced ‘click’ mechanism. A simple push on the pin or a deliberate pull of the cups is sufficient to select the click corresponding to the desired height, and once set, it remains fixed until further adjustment.
Designing a headband presents easily understandable challenges. It requires achieving the correct clamp on the temples by using the right curvature and material. Aluminum would not have performed this task adequately, and I also wanted the pressure on the temples to be adaptive, allowing the user to choose and adjust it based on the shape of their head. I dismissed carbon fiber from the start, as its lightweight nature wouldn’t allow for precise regulation of pressure on the temples. The final choice fell on 304 stainless steel, a material known for its ‘shape memory,’ which enables the user to precisely mold the headband to their needs. This type of steel is ideal for audiophiles because, once the perfect shape is achieved, it retains a certain flexibility, allowing the headphones to be easily worn while returning to the exact shape and providing the desired clamp. This requires the end user to manually and personally adjust the headband, but I see this not as a drawback, but rather as a virtue. Those who have used this headband swear it is one of the most comfortable and stable they’ve ever experienced, and their feedback leads me to believe that I’ve succeeded in providing both stability and comfort to headphones that are neither light nor easy to balance
Just like the clamp by headband, the band plays a crucial role in fully enjoying your music. It is responsible for distributing the considerable weight of the headphones. To ensure even weight distribution, I designed the band to be positioned at the ideal height, and to avoid limiting this choice, I created slots at the selected height where the band can be secured. Once again, I did not allow weight savings to dictate my approach, focusing solely on functionality to offer the utmost comfort. I crafted the band with a triple-layer design: the lower layer, which rests against the head, is made of genuine Alcantara—a prestigious Italian material renowned for its comfort against the skin, probably the best available. The upper layer is genuine leather, and the middle layer is memory foam. This combination approaches, and in some cases exceeds, 50 grams, nearly 10% of the total headphone weight. However, I have concluded that the benefits it provides in terms of comfort and refinement far outweigh this slight increase
I have a deep appreciation for beauty, but I don’t consider myself a capable designer. When I work on a project, I let the end goal guide me, allowing ideas to form along the way. In this case, however, I placed my complete trust in the aesthetic expertise of my friend Benny, who gave me the initial creative direction. Despite some deviations, where his taste clashed with functionality, I managed to preserve the original concept. The honeycomb grille and the exposed bolts were his ideas—both perfectly suited for the design. Leaving the bolts visible allowed me to develop the best possible solution for anchoring the driver. I needed precisely that type of bolting to keep the cup’s size within acceptable limits; I feared exceeding 120 mm in diameter but managed to contain it within 105 mm at the smaller end and 113 mm at the larger.While the original design sketched circular ear cups, the project’s evolution demanded oval ones, which we didn’t want. I compromised by subtly ovalizing the circle just enough to serve the design’s effectiveness. The result was fully approved by my friends who supported me, and I take this opportunity to thank Benny, Valentino, Mauro, and Achille for their financial contributions that lowered the production cost. My great reward lies in delivering them a high-end headphone, capable of competing with top-tier models, at actual production cost. As I write, it remains just a hope; we’ve only tested the sound in rough prototype versions made of resin, with temporary driver anchoring. I’ll update this section in a few weeks when the finished product is in hand.Returning to the design, we spent entire days discussing and evaluating the functionality and aesthetics of the joint plate between the gimbal and the headband. We eventually found harmony, aligning the external bulk with the ear cup’s thickness, while curving the lower part to blend with the gimbal’s curvature. It took weeks to position the audio jack at a 40-degree angle so that when resting the headphones on a stand, the cable—if left attached—wouldn’t bend awkwardly at the base. There was simply no space inside the cup, and placing it outside would have been unsightly, yet the 20 mm needed for the jack had to come from somewhere. How I managed to fit that 20 mm jack into just 6×6 mm of protruding scrollwork is hard to explain, but that challenge was overcome too, and the scrollwork is now beautifully integrated into the whole structure.
I have observed with curiosity the recent trend among audiophile headphone manufacturers to compete for the lightest possible design, and I must admit that my curiosity remains unsatisfied. I am merely a humble designer, not a scientist, and by nature, I adhere strictly to the boundaries imposed by physics and mechanics. I am not the one to challenge those laws. If I had intended to build a lightweight headphone, I would have chosen lightweight drivers. However, a 100mm driver can only be lightweight if it uses fewer, less powerful magnets—and compromising on magnet size or strength is not an option for me, as they are responsible for generating the sound.
My headphones are entirely handmade, designed, and crafted by me, although I outsource the machining of my designed components to specialized workshops, as I do not have a lathe or CNC mill at home. I utilize a 3D printer to create the hundreds of prototypes necessary to achieve the final result.