Tag Archives: 3D-printed

These Five 3D-Printed Lamps Shape Light With Mazes and Moving Rings

Posted on by

The relationship between technology and craftsmanship is evolving rapidly, and 3D-printed lighting sits at the center of this transformation. What once belonged purely to industrial manufacturing has now become a creative medium for designers, artists, and architects. Through digital modeling, parametric experimentation, and sustainable fabrication, 3D-printed lamps are redefining how ambient light interacts with interiors.

These sculptural objects are more than functional fixtures. They merge precision engineering with artistic expression, creating lighting that feels organic, customizable, and emotionally engaging. As digital craft evolves, here is how 3D-printed lamps are shaping a future where light becomes both atmosphere and architecture.

1. Parametric Light Sculptures

Traditional lighting design often begins with hand sketches and material studies, but digital craft introduces a more fluid design process. Using parametric software, designers can manipulate patterns, geometries, and textures in real time. This allows lighting forms to evolve naturally through algorithms and experimentation.

The result is a new language of illumination where every curve, perforation, and layer influences the diffusion of light. Designers can create highly detailed structures that would be difficult or impossible to produce through conventional manufacturing. Digital precision transforms lamps into immersive visual experiences.

The Maze Lamp transforms experimental 3D printing into a sculptural lighting piece filled with movement, texture, and individuality. Created by designer Stijn van Aardenne, the lamp features intricate winding lines produced through an industrial 3D printing process that moves across a rotating axis. This technique creates mesmerizing maze-like patterns that wrap around the cylindrical form, casting dramatic shadows and ambient light throughout the space. Even when switched off, the lamp stands as a striking decorative object with an artistic and futuristic presence.

Each Maze Lamp is unique, as the flowing patterns are generated through a randomized printing process, ensuring no two pieces are ever identical. Crafted using recycled plastic sourced from discarded refrigerator doors, the design also embraces sustainability while celebrating digital craftsmanship. The layered structure creates a glowing effect that feels both mysterious and architectural, turning the lamp into a functional work of art.

2. Layered Printing Creates Soft Illumination

One of the most fascinating aspects of 3D-printed lamps is how layered fabrication affects light quality. During the printing process, thin material layers form subtle textures that interact beautifully with illumination. These ridges scatter light softly, creating a warm and ambient glow within interiors.

Instead of harsh brightness, the lamp becomes a medium for atmosphere. The printed patterns generate shadows and gradients that shift depending on viewing angles and light intensity. This blend of texture and luminosity turns ordinary lighting into a sensory and sculptural feature.

The Alherd Collection by YET FAB transforms lighting into a sculptural exploration of nature, technology, and atmosphere. Inspired by the organic growth of coral formations and the erosion of natural stone, the collection features porous, cellular structures created through advanced computational design and custom 3D printing. Founded by Ilya Kotler, Anastasiya Kotler, and Rael Kaymer, the studio blends biomimicry with digital fabrication to create lamps that glow like living forms while adding a soft ambient presence to contemporary interiors.

The collection includes table, floor, and pendant lamps, all sharing a unified visual language that adapts beautifully across different scales. Crafted from recyclable plastic, each lamp is made to order and can be customized in various finishes and colors. Integrated LED lighting softly illuminates the textured surfaces, producing a warm, atmospheric glow that feels both futuristic and organic.

3. Sustainable Materials Shape Modern Lighting

Sustainability has become a defining factor in contemporary product design, and 3D-printed lighting responds directly to this shift. Many designers now use biodegradable plastics, recycled polymers, and plant-based materials to produce environmentally conscious lamps. Digital fabrication also reduces material waste compared to traditional manufacturing methods.

Since objects are printed only where material is required, excess production is minimized. Designers can also manufacture locally, reducing transportation emissions and unnecessary inventory. This approach reflects a future where digital craft aligns aesthetics with responsible production practices.

The Drop Light by Teixeira Design Studio redefines everyday desk lighting through a thoughtful blend of functionality, sustainability, and minimalist design. Created in collaboration with Oftwise Studio, the lamp is 3D printed entirely from recycled plant-based PLA and features an integrated storage tray within its sculptural base. Designed to organize essentials like charging cables, earphones, and small accessories, the lamp transforms clutter into a seamless part of the design while maintaining a clean and contemporary aesthetic suited for modern interiors and workspaces.

The design highlights the versatility of 3D printing through contrasting textures and finishes. Its matte, tactile base offers durability and warmth, while the smooth, semi-translucent shade softly diffuses light to create a calm, ambient glow. The layered printing details feel intentional rather than industrial, emphasizing craftsmanship and precision. Combining sustainable materials with intelligent functionality, the Drop Light stands as a refined example of modern lighting design where utility, environmental consciousness, and understated elegance exist in perfect balance.

4. Customization Redefines Personal Spaces

3D printing allows lighting design to move beyond mass production toward personalization. Lamps can now be customized in size, texture, color, and form according to the needs of individual users or specific interiors. This flexibility creates stronger emotional connections between objects and spaces.

For homeowners and designers, customization means lighting can adapt to modern lifestyles. Organic forms inspired by nature, futuristic geometric structures, or minimal sculptural silhouettes can all be produced with ease. The result is lighting that feels unique rather than standardized.

The lighting collection from Gantri focuses on sustainable, design-led lamps made using plant-based, sugar-derived PLA materials. Each product is 3D printed to achieve precise forms, soft textures, and environmentally responsible construction. The designs combine modern aesthetics with functional lighting solutions suited for compact and contemporary interiors. The material choice ensures durability while maintaining a low environmental impact, making the lamps both practical and sustainable for everyday use.

The collection includes table, desk, and ambient lighting designed to enhance workspace and home environments. Products like sculptural desk lamps, multi-functional tray lights, and ambient mood lighting solutions offer features such as diffused illumination, space-saving bases, and integrated utility functions. Many designs emphasize minimal silhouettes, warm LED lighting, and ergonomic light distribution to reduce eye strain. Across the range, the focus remains on combining functionality, clean design, and eco-conscious production through advanced 3D printing technology, resulting in versatile lighting objects that suit modern living spaces.

5. The Fusion of Art, Technology, and Atmosphere

3D-printed lamps exist at the intersection of digital innovation and artistic craft. Designers are no longer limited by traditional tools or manufacturing constraints. Instead, they can experiment freely with fluid geometries, intricate lattices, and biomorphic forms that transform illumination into art.

As these lamps glow, they create immersive environments where technology feels human-centered rather than mechanical. Ambient lighting becomes an emotional experience shaped by texture, transparency, and shadow. This fusion of craft and computation reflects the future of contemporary design culture.

The Armadillo series by OHR Design explores how 3D printing can move beyond novelty objects into functional lighting systems. Inspired by the layered armor of the armadillo, the design transforms a simple shade into a kinetic, adjustable structure made of concentric printed rings. Originally developed from the OHRB tea light holder, the Armadillo introduces a flexible lighting concept where form directly controls illumination. The compact version stands at 240 mm and works as a bedside or accent light, while maintaining a sculptural presence even when unlit.

The Armadillo XL expands the concept into a full-scale desk lamp at 373.8 mm tall, designed for standard light bulbs and stronger everyday use. Its adjustable ring system allows users to open or close the shade, shifting light from a soft ambient glow to a focused beam depending on the need. Instead of being a fixed object, the lamp becomes interactive, letting the user physically shape lighting conditions.

These 3D-printed lamps transform digital craft into atmospheric experiences, blending technology, sustainability, and artistry. Through innovative fabrication and customizable forms, ambient lighting evolves into a sculptural expression that reshapes modern interior design.

The post These Five 3D-Printed Lamps Shape Light With Mazes and Moving Rings first appeared on Yanko Design.

This 3D-Printed Saddle Is Designed Around the Horse, Not Adjusted to It

Posted on by

A saddle is one of the most intimate pieces of equipment in equestrian sport. It sits at the exact point where two athletes meet, translating weight, movement, balance, and intention between horse and rider. Yet for something so central to that relationship, saddle fitting has remained surprisingly dependent on traditional measuring methods, adjustment, and compromise. Catalyst asks what happens when that process becomes precise enough to design around the individual horse from the beginning.

Designed by Hallie Eskey, Catalyst is a custom-fit, 3D-printed jumping saddle developed specifically for the demands of show jumping. The sport subjects both horse and rider to repeated impact as they accelerate, take off, land, and immediately reorganize their balance for the next obstacle. In that environment, the saddle has to do far more than simply provide a seat. Poor fit can create pressure, discomfort, and injury for the horse while interfering with the subtle communication between horse and rider. Catalyst approaches the saddle as performance equipment shaped by anatomy rather than a standardized object that the body must adapt to.

Designer: Hallie Eskey

The process begins with LiDAR 3D scanning. Instead of relying solely on manual measurements of the horse’s back, the horse is digitally captured and brought into CAD software. That information becomes the basis for a parametric lattice structure modeled specifically around the horse’s curves. The result is a level of customization that would be difficult to achieve through conventional hand measuring alone.

That lattice is also Catalyst’s most recognizable visual feature. Rather than hiding its internal structure beneath layers of material, the saddle leaves its carbon fiber geometry exposed. It gives the object an almost architectural quality. The pattern is not there simply to make Catalyst look futuristic. Carbon fiber allows the structure to remain lightweight while providing shock absorption, addressing two qualities that become especially important when horse and rider are repeatedly experiencing the force of landing.

There is something compelling about seeing a product associated with centuries of tradition adopt a visual language that feels closer to computational design, performance footwear, or aerospace engineering. Yet Catalyst does not attempt to erase the craft associated with saddle making. Leather remains part of the object, and traditional leather craft was incorporated into the development of the project. The result sits somewhere between artisan practice and digital fabrication, allowing each to solve the problems it handles best.

The same thinking extends into the way Catalyst is assembled. The saddle is designed around a reduced number of components, with rivets used in place of synthetic adhesives. This makes the construction easier to disassemble, repair, and replace in parts rather than treating the saddle as a permanently bonded object. It is a quieter approach to sustainability than simply changing materials. Instead, longevity is designed into the architecture of the product itself.

That consideration is particularly relevant for highly specialized sporting equipment. Performance products tend to sit in an uncomfortable space between durability and technological progression. They need to withstand demanding use, yet improvements in materials and manufacturing continually push them forward. Designing components that can be separated and replaced gives Catalyst a way to accommodate both realities.

The final saddle grew out of a 20-week development process that included research with equestrian professionals, saddle teardowns, detailed sketching, two full-scale prototypes, iterative CAD modeling, and parametric development in Grasshopper. Those stages matter because Catalyst could easily have become an exercise in applying an impressive manufacturing technology to a familiar object. Instead, the technology follows the actual constraints of the sport and the anatomy of the animal.

Perhaps the most interesting thing about Catalyst is that its innovation begins with fit rather than form. The striking lattice and contemporary silhouette are consequences of rethinking how a saddle can be made, adjusted, repaired, and individualized. 3D scanning allows the horse to become the starting geometry. 3D printing allows that geometry to become physical. Carbon fiber responds to weight and impact. Riveted construction considers what happens when the product eventually needs attention.

Catalyst suggests a different future for equestrian equipment, one where customization does not depend entirely on adjustment after manufacturing. Instead, the individual horse can inform the object before it is made. For a sport built around communication between two bodies, designing the equipment around those bodies feels less like a technological spectacle and more like a logical next step.

The post This 3D-Printed Saddle Is Designed Around the Horse, Not Adjusted to It first appeared on Yanko Design.

DIYer creates handheld gaming PC from a salvaged Galaxy A90 phone

Posted on by

Handheld gaming machines are compact, easy to use, and give you the freedom to bring AAA titles to your busy lifestyle. They are more of a luxury accessory these days owing to the skyrocketing memory module prices worldwide. So, there aren’t many gamers who are willing to shell out $500 – $1,000 upwards for the luxury.

A DIYer identified these problems and finally set out on making a gaming handheld for a fraction of the cost. The custom-made gaming handheld PC is built out of a Galaxy A90 phone with a broken screen bought off eBay for $30. The major components, including the processor, RAM, GPU, and the built-in battery, are salvaged out carefully by removing the outer shell. These components act as the main brain of the gadget.

Designer: GameRig

The next major step is to get hold of a Bluetooth gaming controller and the keyboard, and somehow get them to fit inside the handheld’s shell which is quite thin. Since we are talking of a gaming handheld, the controller’s outside shell, vibration motors, ports, and the support system for the components can be removed. Just the PCB, joystick, and the button inputs are required. The 11.5 cm long keyboard is saved from the same treatment as it is already quite thin to fit inside the handheld rig.

Then comes the most important component for the thing, and the maker luckily had a 7-inch screen display lying around. So, the next step is to connect the keyboard and the controller components to the screen and check if everything is working fine. The connection from the screen to the other components is via the Samsung DeX app using the USB-C hub.

The enclosure of the hub is quite big, so it gets the same treatment, as only the necessary components are retained, and the enclosure is eliminated from the equation. The phone’s battery and an added battery are salvaged for the project. But the display requires 5V output while the battery is capped at 3.5 V. The solution is to get a charging board that supplies the desired voltage to the components.

After getting the hard work done, GameRig gets down to building the shell of the handheld. Predictably, he uses 3D-printed components to get the job done. The display housing is built first, and then the main housing for the rest of the components is dealt with.

Next, it is down to soldering the required components like the controller, power board, and the motherboard to the batteries. After figuring out the wiring and the ports for the machine, the DIY handheld gaming rig comes to life. The last step is to fit a speaker for the machine, and then again test everything again before securing the housing.

The fun part starts here as the hard work put into the making is rewarded with the maiden session of gaming on the handheld. To be honest, the modern-day AAA titles like Tomb Raider are a bit of a handful for the machine. However, it is perfect for playing the less demanding arcade titles like Asphalt or classic games every gamer still swears by.

The post DIYer creates handheld gaming PC from a salvaged Galaxy A90 phone first appeared on Yanko Design.

The 3D-Printed Vases That Actually Look Hand-Woven

Posted on by

I don’t need a lot of vases in my house since I rarely get flowers or other decorations that would need a vessel like that. And even if I needed one, I don’t find the vases available at my local department store all that interesting or worth buying, especially if I won’t be using it often. But if the design is unique or there’s a nice story behind it, it’s something that can draw my attention.

These 3D-printed vases from the Polish design studio Wontek caught my eye because they look distinct and colorful, two things I look for in decorative (and sometimes functional) objects. These aren’t just vases churned out by a 3D printer. Each piece is designed, printed, finished, and packed in-house, with the vases printed from PLA, a compostable bioplastic, using what the studio calls “an original technique of weaving.”

Designer: Wontek

Most 3D-printed objects rely on a nozzle simply building up smooth layers. Wontek, however, uses the printer more like a weaving loom, with each pass of colored filament acting as a thread and stacking into pattern bands that make the vases look hand-woven. The surface motifs are inspired by traditional folk and hand-loom textile patterns, giving you checkerboards, chevrons, striped bands, and eye-like cutouts that make each piece look unlike most mass-produced vases on the market.

The vase walls also aren’t perfectly symmetrical, as you might expect from something 3D-printed. There are ripples, puckers, and folds, much like actual cloth would look if draped over a form. Some pieces even have handles that appear to be cut from the same woven surface rather than attached as a separate part. Color is treated as a design tool here, too, with pinks fading into yellows and blues melting into greens. These aren’t graphics printed onto the surface; they’re built into the structure layer by layer, giving the vases real depth and a texture you can actually feel.

That tactile, sculptural quality is really the whole point. Because the pattern is physically built into the vase rather than applied on top of it, each piece reads as one cohesive art object instead of “a plain vase with a design on it.” That makes it a lot easier to style confidently on a shelf, table, or mantel, and it turns a functional object into a genuine conversation piece, the kind of thing people pick up and ask about. It also helps that PLA is compostable, so you get a bold, maximalist look without the environmental guilt that can come with mass-produced plastic decor.

It’s worth putting Wontek’s approach next to how a bigger name in the design world handles a similar idea. Kartell, the Italian furniture and homeware giant, has long produced its Trama vase collection, plastic vessels molded to resemble woven baskets. The concept sounds similar on paper, but the execution couldn’t be more different. Kartell relies on injection molding, which means every Trama vase in a given run is identical, produced by the thousands in a factory.

Wontek’s vases, on the other hand, come out of a small Warsaw studio where the color, pattern, and even the form can be adjusted for a single order. You’re not just buying a woven look; you’re buying a piece that was shaped, quite literally, one layer at a time, by a process that can’t produce two pieces exactly the same way twice. That difference in scale and intention is where Wontek’s real value lies, especially for anyone who’s grown tired of seeing the same big-box store vase on every other coffee table.

That, ultimately, is the problem Wontek quietly solves. Most of us are stuck choosing between generic, forgettable vases that everyone else owns, too, or genuinely handmade, textile-inspired pieces that come with a steep price tag and a fragility that makes them stressful to actually use. Wontek splits the difference, giving you the look, texture, and story of an artisanal woven object at a scale that modern manufacturing makes accessible, without sacrificing the small-batch character that makes it feel special.

So even though I still don’t need a house full of vases, I’ll admit this is the first one in a long time that’s made me stop scrolling. Sometimes the right story, paired with the right pattern, is all it takes to turn something you didn’t think you needed into something you can’t stop thinking about.

The post The 3D-Printed Vases That Actually Look Hand-Woven first appeared on Yanko Design.

This Porsche 911 was lifted and rebuilt into a Chicago-ready urban safari car

Posted on by

What happens when a Porsche 911 stops worrying about staying low to the ground? Tangent Design Group has an answer. Lift it three inches, widen its stance, add chunky off-road tires, and turn one of Stuttgart’s most recognizable sports cars into something that looks ready to escape the city rather than attack a racetrack. Built in Chicago, the Urban Safari 911 is an unusual exercise in rethinking what a modern Porsche can be.

The project began in 2019, when the Chicago-based industrial design studio decided to build a Porsche without the constraints of a conventional client brief. Tangent eventually started with a 2021 Porsche 911 Carrera 4, chosen for its all-wheel-drive platform. Finished in Porsche’s Paint-to-Sample Black Olive with a tan interior, the car already had a distinctive character before the transformation began.

Designer: Tangent Design Group

Tangent approached it like a product-development exercise. The original 992 was digitally scanned, including its bumpers, fenders, wheel wells, rocker panels, and rear engine cover. That data became the foundation for developing new components that could properly integrate with the factory body and its increasingly complex electronics. Full-scale parts were then 3D-printed and physically fitted to the car to refine proportions and attachment points before final production.

The most significant change sits underneath the body. Tangent developed a bespoke three-inch lift system while retaining the Porsche’s stock suspension architecture and avoiding software errors. The additional clearance makes room for larger off-road tires and fundamentally changes the stance of the 911. On a truck, three inches might be unremarkable; on a low-slung sports car, it transforms the proportions completely. Something similar to what Vagabund Moto did in collaboration with NINE ELEVEN OUTLAW and DakarGarage to transform a Porsche 924 S into an off-road-worthy ride.

The wheels received the same level of attention. Tangent designed them in-house and worked with Brixton Forged to produce bespoke forged aluminum wheels. Full-scale printed versions were used during development to judge how the design sat against the widened body before the final wheels were manufactured. Visually, the Urban Safari combines wide fender extensions, revised rocker panels, a custom front bull bar and a pronounced ducktail-style rear wing. Auxiliary lighting and roof-mounted adventure equipment reinforce its rally-inspired character, while the graphics package borrows from historic Porsche rally liveries without simply recreating one.

That distinction is important. Tangent’s project predates Porsche’s factory 911 Dakar, having been conceived in 2019, but it draws from the same broader history of Porsche competition cars built for surfaces far removed from a racetrack. Instead of copying a classic rally car or dressing the 992 in retro cues, Tangent has created something that feels contemporary and purpose-built.

The result is currently a one-off, but Tangent is accepting inquiries about the Urban Safari kit, leaving open the possibility that its design language could eventually find its way onto other 992-generation cars.

 

The post This Porsche 911 was lifted and rebuilt into a Chicago-ready urban safari car first appeared on Yanko Design.

3 Printed Parts That Quietly Replace the Furniture Store

Posted on by

I’ve assembled enough flat-pack furniture to know the drill by heart. You order a piece online, wait for a box the size of a refrigerator, then spend an afternoon matching pre-drilled holes to cryptic diagrams, using an Allen key that will inevitably strip before you finish. What you end up with is furniture designed by someone else, sized for someone else’s room, built from a material you never chose. If it breaks or you move, most of it goes straight to the curb.

That’s the quiet frustration Japanese designer Nobutsuna Honami, who works under the name Inahono Furniture, seems to be answering with Chois. It’s not a table or a shelf or a coat rack. It’s a small family of 3D-printed joints, and that’s the whole product. You supply the rest yourself, in the form of ordinary wooden dowels you can pick up at any hardware store. Slot the dowels into the printed connectors, and you’ve got a three-legged furniture unit that can become a side table, a valet stand, or a hanging rack, depending on the lengths you cut and the angles you choose.

Designer: Nobutsuna Honami

What gets me about this approach is how little it actually manufactures. A typical furniture company ships you a finished object, or at best a kit of pre-cut parts matched to one specific design. Chois flips that math. The only engineered component is the joint itself, a small piece of plastic that would fit in your palm. Everything else, the length of the legs, the height of the table, the wood species, the finish, is left entirely up to whoever’s building it. You’re not buying a table. You’re buying the idea of a table, and finishing the sentence yourself.

I keep thinking about what this does to the economics of furniture, in a good way. Dowels are cheap, standardized, and available almost everywhere, which means the actual cost of a piece drops to whatever a handful of printed joints run plus a trip to the lumber aisle. There’s no container ship required, no oversized box, no styrofoam corners destined for a landfill. If a leg cracks or you want a taller version for a different room, you don’t throw out the whole piece. You cut a new dowel and keep the joint you already have.

I’ll admit I’m a sucker for design that treats the user as a collaborator rather than a customer. Chois doesn’t ask you to have carpentry skills, which is refreshing, since most modular furniture that promises “you build it” still expects you to own a miter saw and know what you’re doing with it. Here the precision lives entirely in the printed joint. The dowel just needs to be cut roughly to length, and the connector handles the angle and the structural logic. That’s a genuinely clever way to lower the barrier for anyone who wants custom furniture but has never built anything sturdier than an IKEA shelf.

It also fits neatly into where small-scale manufacturing seems to be heading. 3D printing gets a lot of hype for making entire objects, chairs, lamps, whole rooms, but the more interesting use case might be exactly this: printing only the part that actually benefits from precision, and letting cheap, universal materials handle the rest. A dowel is a dowel anywhere in the country. A joint that turns three of them into a stable structure is the clever bit, and it’s the only bit that needs a printer at all.

I don’t know if Chois scales beyond a niche of design-forward DIYers who already own a 3D printer or know someone who does. Access is still the real hurdle for a lot of home-fabrication ideas like this one. But as a proof of concept, it makes a genuinely honest case for furniture that adapts to your space instead of the other way around. Sometimes the most useful design decision isn’t adding more to a product. It’s figuring out the smallest possible thing you actually need to make, and trusting the rest to whatever’s already sitting in a hardware store bin.

The post 3 Printed Parts That Quietly Replace the Furniture Store first appeared on Yanko Design.

36 Apartments, Six Clusters, One Printer: Denmark Just Built Europe’s Largest 3D-Printed Village

Posted on by

There’s a moment when a technology stops being a proof of concept and starts being someone’s home. That moment arrived in Holstebro, Denmark, with the completion of Skovsporet — 36 student apartments built almost entirely by a robotic printer, making it one of the largest 3D-printed housing projects in the world.

The project was commissioned by NordVestBO and delivered by 3DCP Group, with architecture from SAGA Space Architects and MS+. It sits close to VIA University College, which makes the location feel intentional rather than incidental — a student village that grew from the ground up, literally. The name Skovsporet translates loosely to “forest track,” and the design leans into that softness. Six low-rise clusters, each holding six apartments, wrap around shared courtyards and landscaped gardens. Walking paths and bicycle parking thread through the site, creating the kind of everyday rhythm that makes a place feel lived-in rather than installed.

Designer: 3DCP Group, SAGA Space Architects & MS+

At 1,650 square meters across 36 units ranging from 39 to 50 square meters, the scale is modest by development standards. But that restraint is the point. Each apartment is self-contained — full kitchen, study area, sofa lounge, bathroom with shower, and a proper double bed. It’s everything a student actually needs, without excess. The architecture doesn’t perform ambition; it delivers it quietly.

The structural walls were printed on-site using a COBOD BOD3 printer operated by a three-person team, achieving millimeter-level accuracy across the entire build. The concrete mix, D.fab, contains FUTURECEM — a lower-carbon cement developed by Aalborg Portland — reducing the environmental footprint without compromising structural integrity. The bicycle shed pushed things further, using 3D-printed elements containing zero cement, achieving an 84% reduction in CO₂ emissions compared to traditional concrete. That’s not a marketing footnote. That’s a material shift.

“We have gone from printing small prototypes to creating 36 real homes and an entire community. That is the scale where technology starts to matter as a serious tool for architecture,” – Sebastian Aristotelis, Co-Founder and Lead Architect of SAGA Space Architects, said it plainly. The technical breakthrough wasn’t a single successful print. It was repeating that success 36 times over 12 months without losing control of the outcome.

Construction is now complete, with students set to move in. 3DCP Group and SAGA are already researching new material configurations for future projects, treating Skovsporet not as a destination but as a baseline. That’s the right instinct. When a neighborhood built by robots starts to feel normal, you know the technology has finally grown up.

The post 36 Apartments, Six Clusters, One Printer: Denmark Just Built Europe’s Largest 3D-Printed Village first appeared on Yanko Design.

Someone Actually Made a Fully Playable Banjo From a Party Balloon

Posted on by

I’ll be honest: the first time I saw images of Co:Creation Lab’s Balloon Banjo, I laughed. Not in a dismissive way, but in the way you laugh when something is just genuinely delightful. It’s lime green and baby blue, shaped like a proper banjo, and where a wooden drum body should be, there’s a round, inflated party balloon clamped neatly into place. It looks like something that fell out of a toy box, which is exactly the point, and also exactly why it’s brilliant.

The concept is almost absurdly simple. You download 19 3D-printable parts, assemble them into seven components, and thread nylon fishing line as the strings. The balloon slots in underneath the frame and does what balloons do: it holds air. But that air is doing real acoustic work. The taut rubber surface acts as the sounding board, vibrating when you pluck the strings and creating an actual, if quirky, musical tone. Want to change how it resonates? Just add more air or let some out. No tools, no glue, no specialist equipment. The physics are right there in your hands, adjustable in real time.

Designer: Co:Creation Lab

One of the more considered decisions in this design is how it handles assembly. There are no metal screws. Instead, the parts use 3D-printed plastic screws, sized so that a six-year-old can turn them with their fingers without stripping the threads. That small detail says a lot about Co:Creation Lab’s thinking. This wasn’t designed to impress engineers. It was designed with a specific constraint in mind: a parent should be able to build it together with their child. The build is the experience, not just the end result.

I find that kind of intentional constraint genuinely refreshing. Design often gets celebrated for how much it can do, how many features it can pack in, how complex it can become. The Balloon Banjo goes the other direction entirely. Every choice is stripped back to what’s necessary, and what’s necessary turns out to be enough. The design files are available to download, and the materials cost next to nothing beyond the printer and filament. A party balloon, some fishing line, and a little patience. That’s it.

Is it a real musical instrument? Technically, yes. Is it going to replace your ukulele or compete with an actual banjo? Absolutely not. It’s more of a homebrew science toy than a concert-ready instrument. But I don’t think that’s a limitation so much as a reframing. The Balloon Banjo doesn’t ask to be taken seriously as an instrument. It asks you to be curious. It asks you to understand why it makes sound, what changes when you add more air, and what happens if you pull the string tighter. Those are good questions for any age.

The aesthetic is also doing a lot here. That lime green frame and the pastel blue balloon aren’t accidental. The color palette is cheerful and toy-like, which signals immediately that this is meant to be played with, not displayed behind glass. Compared to the earnest seriousness that tends to follow a lot of maker culture projects, the Balloon Banjo has a lightness to it, a sense of humor about itself, that makes it more accessible rather than less.

The broader conversation around 3D printing still tends to lean utilitarian: replacement parts, custom brackets, functional objects. What Co:Creation Lab has made is a reminder that fabrication can also just be fun. That you can hand a kid a finished thing, and the fact that they helped build it is what makes it matter. Good design doesn’t always have to solve a problem. Sometimes it just has to make you want to pick it up and pluck a string. Even if the sound is a little wonky.

The post Someone Actually Made a Fully Playable Banjo From a Party Balloon first appeared on Yanko Design.

The Georgia Art Show Turning 9 Broken 3D Prints Into Music

Posted on by

Every fabrication lab in the country is quietly accumulating a problem. Failed prints, test runs, leftover filament, the ghost of every prototype that didn’t make the cut. Most of it ends up in the bin. Architect Hyojin Kwon noticed this and, instead of moving on, asked a different question: what if all that discarded plastic could hold a note?

The result is Ninefold: A Distributed Resonant Field, a collaboration between Kwon’s design studio Pre- and Post-, percussionist and composer Jeremy Muller, and architect and material researcher Misri Patel. It’s currently on view at the Reeves House Visual Arts Center in Woodstock, Georgia, through September, and it is one of the more quietly radical things happening in design right now.

Designers: Hyojin Kwon × Jeremy Muller x Misri Patel

The installation is made up of nine large-scale forms, each one 3D-printed from discarded PLA collected from campus makerspaces and fabrication labs. The team shredded that waste into pellets, blended it with virgin material, and ran it through a pellet-based additive manufacturing process. The resulting objects are not identical. Some grow into tall, slender columns. Others widen into chambers or narrow toward their centers. Each carries its own texture, its own layered color variation from the mixed-batch sourcing, and its own distinct harmonic frequency. Together, they form a distributed sound field, meaning the sound is never coming from one place. It moves with you.

That last part is what makes this more than a sculpture show with a good concept. As you walk through the space, your position changes the acoustic picture entirely. Tones overlap, separate, recede. You’re not passively observing nine objects; you’re completing the field. The project draws on the thinking of composer Edgard Varèse, who called for “organized sound” as architecture, and on the spatial music systems of Iannis Xenakis and Le Corbusier. Those are not small reference points. They’re pointing at a lineage that treats space itself as a musical instrument, and Kwon, Muller, and Patel are building within that tradition using material that would have otherwise ended up as landfill.

The aspect of Ninefold that deserves real attention is how seriously it takes the material. The layered plastic isn’t hidden or smoothed over into something that looks deliberately “designed.” The texture is part of the expression. You can see the deposition, the color shifts, the history of what it was made from. The project doesn’t pretend the recycling didn’t happen; it foregrounds it. That honesty feels important at a moment when sustainability has become more of a marketing category than an actual practice.

The nine forms were also fabricated in modular sections, which means they can be transported, reconfigured, and reinstalled elsewhere. That might seem like a logistical footnote, but it matters: an installation about material longevity should probably have a long life. These objects weren’t made to be shown once and archived.

Ninefold is part of a dual exhibition that also includes Plastic Reimagined: Material Agency & Circular Design, developed with students from Georgia Tech’s graduate architecture program and curated by Carolina Cuevas. The full show runs through September at the Reeves House, and admission is free. If you’re near Woodstock, Georgia, it’s worth the trip. If you’re not, the images alone carry something worth sitting with. A lot of projects right now wear sustainability as a label. Ninefold actually earns it, and then manages to also be beautiful, which is rarer than it should be.

The post The Georgia Art Show Turning 9 Broken 3D Prints Into Music first appeared on Yanko Design.

The Adidas Sneaker That Takes 24 Hours to Print and Seconds to Want

Posted on by

Footwear has always been a quiet conversation between technology and design. But every so often, a shoe comes along that forces the conversation out loud. Adidas’ Climacool Laced is that shoe for this season, and whether or not you’re a sneakerhead, it deserves your attention.

The Climacool story started in 2024, when Adidas introduced the original Climacool as a single-piece 3D-printed shoe built around one ambitious idea: a shoe “made like nothing, feels like nothing, looks like nothing.” Bold claim. Bolder execution. The original concept was all about a lattice structure that could mold to the foot while letting air move freely around it, a complete departure from how sneakers are traditionally assembled. For the FW26 season, Adidas evolved that vision with the Climacool Laced, and the update is both practical and surprisingly elegant.

Designer: Adidas

The key addition, as the name makes clear, is laces. That might sound minor, but it’s actually a thoughtful design decision. The original Climacool’s slip-on format was a statement in itself, but laces open the shoe up to more foot shapes, more wearers, and more moments. It’s the kind of iteration that shows a brand actually listening rather than just launching. The lace-up construction is also paired with updated traction and that signature ghost stripe detail, rendered in monochromatic white or contrasting black depending on the colorway.

The construction process is still the headline. Each pair of Climacool Laced shoes is built using Digital Light Synthesis (DLS) 3D printing, a process that takes approximately 24 hours per shoe. DLS is not your average desktop 3D printer situation. It’s an advanced additive manufacturing technique that uses UV light to cure liquid resin layer by layer, producing structures with far more precision and flexibility than traditional methods. The result is the Climacool’s defining characteristic: a fully 3D-printed lattice upper that reads almost like a woven textile but behaves more like an engineering diagram.

That lattice is functional. Adidas engineered it to allow 360° airflow, with strategically placed mesh ventilation zones that keep feet cool during movement. The shoe also includes arch support and integrated heel pillows, features that might get lost in all the tech conversation but matter enormously for everyday wearability. This is not a shoe designed to live in a display case, even if it could pull off that assignment very convincingly.

Visually, the Climacool Laced occupies an interesting space. It’s undeniably futuristic but somehow not alienating. The all-white or off-white colorway with contrasting black laces has a restraint to it that most tech-forward shoes abandon in favor of maximalism. It looks like something designed by someone who trusts the material to do the talking. A pink colorway has also surfaced, which adds a playful dimension and signals that Adidas is leaning into a broader audience rather than keeping this in the realm of experimental footwear for the few.

The campaign behind the shoe features Kahleah Copper and Jalen Williams, both known for their off-court style, which positions the Climacool Laced firmly in lifestyle territory rather than performance. That framing matters. Adidas is making a clear argument that 3D-printed construction isn’t a niche technology story. It’s a mainstream design choice. And with the original Climacool retailing at $140, they’re pricing it to be worn, not collected.

My take? The Climacool Laced feels like proof that fashion and manufacturing are finally having a productive conversation. Too often, 3D-printed shoes land as concepts that never quite cross the threshold into something you’d actually reach for in the morning. The Climacool Laced crosses it. The lace addition alone takes it from art object to wardrobe player, and the 24-hour production process behind each pair gives it a quiet sense of craft that fast fashion simply can’t replicate.

We’re at a point where the most interesting footwear design isn’t happening on a sketch pad. It’s happening in a digital file, cured by light, one layer at a time. The Climacool Laced makes that shift feel not just inevitable, but genuinely exciting.

The post The Adidas Sneaker That Takes 24 Hours to Print and Seconds to Want first appeared on Yanko Design.