Tag Archives: 3D-printed

Yale Engineers Created a 3D-Printed Carbon-Fiber Cello That That Never Cracks or Warps

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Traditional wooden cellos and violins are exquisite but fragile. They crack in dry weather, warp in humidity, and require constant environmental monitoring. A professional instrument can cost tens of thousands of dollars, yet one bad flight or unexpected temperature change can cause irreversible damage. This vulnerability has long kept quality instruments out of reach for traveling musicians, students in varied climates, and performers who need reliability above all else.

Forte3D’s answer combines 3D printing technology with carbon fiber construction. The team, led by Yale student Elijah Lee and co-founder Alfred Goodrich, created instruments with flat carbon fiber panels and 3D printed polymer components that maintain their shape regardless of environmental conditions. The sound quality matches traditional instruments because the team used computer-aided design to control every structural element and dial in the acoustics precisely. These instruments also include adjustable string heights and smooth tuning mechanisms, making them accessible for players at different skill levels.

Designer: Forte3D

The project originated from a practical challenge. Lee’s orchestra director asked if he could use his early 3D printing skills to design a cello that was strong, low cost, and easy for more people to use. Rather than simply replicating traditional designs in new materials, Lee and Goodrich rethought the entire structure. They tested different thicknesses and configurations using computer-aided design tools, discovering they could shape the sound in more controlled ways than traditional luthiers. This digital precision allowed them to dial in the acoustics by controlling every part of the structure.

The final design breaks from tradition in significant ways. The top and back panels are made from carbon fiber and shaped as flat and concave surfaces rather than carved forms. The ribs and neck come from 3D printed polymer material. However, certain classical elements remain unchanged because they work perfectly as they are. The sound post, fingerboard, and bridge are still made using traditional methods and materials, creating a hybrid that respects acoustic principles while embracing modern durability.

Carbon fiber’s core advantage is its stability. Unlike wood, which expands and contracts with atmospheric changes, carbon fiber maintains its dimensions regardless of humidity or temperature. This means musicians can bring their instruments to outdoor performances, different climates, or even extreme environments without worrying about structural damage. The material also eliminates the need for specialized maintenance products. A simple cloth and common household cleaners are sufficient to keep these instruments in excellent condition.

Forte3D also addressed playing comfort, which directly affects technique and long-term health. When strings sit too high or too low, musicians experience hand pain and their personal technique becomes harder to execute. The team built in an adjustable string height system that lets each player move the strings up or down using a small tool that comes with the instrument. The cello also includes smoothly moving tuning pegs and tools for stopping wolf tones, which are unwanted resonances that plague certain notes on string instruments. A printed guide ensures the bridge sits in the correct position, and all these design elements work together to support both playing comfort and sound production.

The violin version carries the same philosophy. Players can adjust string height to match their needs, and the body features a hole at the back to support sound flow. Like the cello, it ships with strings and tuning pegs designed for easier tuning. Both instruments handle weather changes and physical bumps that would damage wooden counterparts. For the Forte3D team, these instruments are not about making a style statement. They focus on what musicians actually need, which means less worry about damage, easier carrying, simpler care, and lower cost. The result is an instrument that honors centuries of acoustic development while finally freeing musicians from the constraints that wood has always imposed.

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These Ceramic Cups Were Designed And Manufactured Entirely By An Algorithm

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Sure, we could sit and fearmonger about how AI will one day replace designers, but here’s an alternative reality – what if AI didn’t replace us, it just created a parallel reality? Like you’ve got Japanese ceramics, Italian ceramics, and Turkish ceramics, what if you could have AI ceramics? Not a replacement, not a substitute, just another channel. That’s what BKID envisioned with ‘Texture Ware’, a series of cups designed entirely by AI and manufactured using 3D printing. Minimal human intervention, and minimal human cultural input.

The AI feeds itself a vast repository of data and uses its own database to make textural products that humans then use. BKID’s results look nothing like anything we’ve seen before, each cup of the Texture Ware series looks almost alien, an exaggeration of textures found in nature taken to an extreme. You wouldn’t find such cups in a handicrafts bazaar or your local IKEA. They’re so different that they exist as a separate entity within the industry, not a replacement of the industry itself.

Designer: BKID co

The workflow uses different AI services to go from prompt to cup. The only real input is a text prompt from a human specifying what sort of texture they want. The AI generates the texture image using ChatGPT’s Dall-E, creates  a cup out of it in Midjourney, and then translates the 2D image of a cup to 3D using Vizcom. The 3D file then gets 3D printed, eliminating pretty much any actual human intervention as the machine models and manufactures the design from start to end.

“What would normally require a considerable amount of time if crafted entirely by hand was instead realized through two to three generative tools and a process of repeated trial and error,” says BKID. “The exaggerated expressions and omitted forms that emerge in each stage invite the audience to experience the subtle differences in sensibility between traditional handcraft and craft shaped by generative software.”

Users can make cups inspired by brutalist textures of concrete, fuzzy textures of moss, rustic textures of wood-bark, wrinkled textures of crumpled paper, raw textures of coal, columnar textures of basalt rock, porous-like textures of coral, or even alien-like textures of fungi. Each cup looks unique and the AI never repeats itself, which means even cups within the same texture category could be wildly different.

The result truly feels alien, because the AI approaches design using an entirely different set of parameters. Their imperfections become design details, their lack of ergonomics or awareness become a unique design DNA. The result isn’t like any cup you’ve ever seen before, and that’s the point – it’s created by an AI that hasn’t ‘seen’ cups, hasn’t used cups, and doesn’t test its output. That being said, the cups are still usable because of the parameters set by the human. The cups don’t have holes, and contain enough volume to hold liquid efficiently. They’re perfect for espresso, saké, or green tea, something that’s savored in tiny quantities in vessels that feel less utilitarian and more ritualistic.

What BKID’s experiment proves is that AI (at least in this case) won’t replace designers, it’ll exist independent of them. Can an AI make a cup exactly like a regular designer would? Absolutely… but there’s a better case to be made to have AI make things beyond human creativity and culture. These cups contort nature and textures into something that feel extremely new, in a way that allows AI-made cups and human-made cups to coexist peacefully.

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3D printed prosthetic fin lets below-knee amputees swim with freedom and efficiency

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A number of different types of prosthetic legs are designed to help below-knee amputees run, whether recreationally or professionally. High-performance running prosthetics, often called blades, have been used by runners like the infamous Oscar Pistorius to shatter numerous records. Now, a similar level of freedom and efficiency seems to be headed for the waters, thanks to an advanced prosthetic concept from Essesi Design Studio.

The below-knee prosthetic fin, called Nimble, is designed by Essesi Design to bring that capability to swimmers. At the core, the lightweight carbon fiber prosthetic features a 3D printed flexible lattice structure. This piece is specially designed to “reduce stress on the user’s limb while generating powerful thrust with each kick,” the design studio notes.

Designer: Essesi Design Studio

Essesi Design Studio has developed Nimble, a concept modular 3D-printed prosthetic fin, to help below-knee amputees swim with greater freedom, comfort, and technological support, making the experience both easier and more efficient for the user. The attachable prosthetic would replace the foot and the lower leg with the Nimble, comprising a carbon fiber frame and the flexible lattice structure in the main body made from rubber material for its suppleness.

The outer shell of the prosthetic is 3D printed from carbon fiber to make the prosthetic fin lightweight and robust, and the lattice component is 3D printed from rubber. Plastic components with rotatable locks are used to join the shell and the lattice and also to attach the entire prosthetic fin to the user’s upper limb.

As mentioned, the lattice unit is basically the heart of this conceptual fin designed for those who have lost a leg. It’s the flexible part that moves when the swimmer kicks. On a downward kick, the structure compresses to store energy and when the kick’s complete, the flexible section snaps back to its original position, simultaneously creating thrust to help the user push forward. Just to ensure this thrust does not hurt the user, the same lattice structure absorbs the impact, preventing the upper part of the leg attached to the prosthetic from experiencing pain or discomfort.

The modular 3D printed prosthetic fin by Essesi Design Studio is in the conceptual stage at the time of writing. But with its promising abilities, The Nimble prosthetic fin should be a compelling option to make it easier for amputees to swim better without exerting too much pressure on their limbs. So, if Nimble can be successfully developed and commercialized, it would definitely open up new avenues in athletic swimming and physical rehabilitation.

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These 3D-Printed Lamps Glow Like Coral Reefs

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There’s something quietly radical happening when designers stop thinking about furniture as rigid, finished objects and start treating them like organisms that could have grown from the ocean floor. That’s exactly what YET FAB has done with their Alherd Collection, a series of lamps that look less like traditional lighting and more like glowing coral formations pulled from some computational reef.

Founded by Ilya Kotler, Anastasiya Kotler, and Rael Kaymer, YET FAB sits at that fascinating intersection where material science meets algorithmic design. The Alherd lamps are all born from the same generative system, inspired by how coral grows and how water erodes stone over centuries. The result is a porous, cellular texture that doesn’t just hold light but transforms it into something softer, more atmospheric, more alive.

Designer: YET FAB

What makes this collection especially interesting is how it scales. Rather than designing three separate products, YET FAB created one visual language that works whether you’re holding a compact table lamp or standing next to a 130 cm floor sculpture. It’s a smart approach that gives the collection a cohesive identity while offering real flexibility for different spaces and needs.

The table lamp is the quiet overachiever of the trio. Small enough to live comfortably on a desk or nightstand, it has this sculptural presence that works even when it’s switched off. But here’s where it gets clever: inside that organic, textured shell is a customizable filter system. You can swap out internal filters to shift the mood completely, moving from warm amber to soft white to deep red without changing how the lamp looks externally. It’s like having multiple lamps in one body, ready to adapt to whether you’re working late, hosting friends, or just need something moody for a quiet evening.

That adaptability matters more than it might seem at first. We’re living in smaller spaces with less room for single-purpose objects, and lighting plays a huge role in how a room feels. A lamp that can shift its emotional register without demanding more square footage? That’s genuinely useful design thinking wrapped in a beautiful package.

Then there’s the floor lamp, which takes everything up several notches in scale and presence. Standing at 130 cm, this piece becomes a vertical sculpture that anchors a room rather than just illuminating it. It’s made from recyclable plastic using a custom 3D printing process, which means each one is fabricated to order. The sustainability angle isn’t just marketing speak here; it’s baked into how these lamps are actually made.

You can choose between fully transparent or a sunset gradient finish, each offering a different vibe. Both versions use internal LED tubes that make the entire porous surface glow from within, creating this soft halo effect that feels more like ambient sculpture than functional lighting. It’s the kind of piece that makes you rethink what a floor lamp can be.

The pendant version brings that same organic aesthetic overhead. Suspended by two minimal cables, it floats above dining tables or work surfaces with an elongated form that breaks away from the typical linear pendant design. There’s something almost weightless about how it hangs there, despite having such a strong visual presence. Like its siblings, it comes in transparent or sunset gradient finishes and uses that same coral-inspired, porous surface to diffuse light gently across whatever space it occupies.

What ties all three pieces together isn’t just their shared aesthetic DNA but the philosophy behind them. YET FAB is researching how computational design can create forms that reference natural systems without mimicking them directly. These aren’t literal recreations of coral; they’re interpretations of how natural structures grow, adapt, and interact with light. It’s biomimicry filtered through algorithms and fabricated with contemporary technology.

Every lamp in the Alherd series is made to order and can be customized in color on request, which adds another layer of personalization to an already thoughtful collection. In a world drowning in mass-produced lighting that all looks vaguely the same, there’s something refreshing about objects that feel computationally precise yet organically imperfect, sustainable yet sculptural, functional yet deeply atmospheric. These aren’t just lamps. They’re experiments in how we might live with light differently.

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This 3D-Printed Modular Power Strip Is Made From Recycled Plastic

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Carefully curated desks always have one ugly secret hiding underneath them. Power strips are black plastic bricks with tangled cables, even in the most beautifully designed workspaces. You need the outlets and USB ports, but nobody wants to look at the usual tangle of cords and generic housings. The bFRIENDS Power Module treats power access as something that deserves the same design attention as pen cups and storage trays.

The bFRIENDS Power Module is a family of 3D-printed desk power hubs designed by Pearson Lloyd for Bene. It’s part of the broader bFRIENDS collection, which uses recycled bioplastic and additive manufacturing to create desk accessories. That same language now extends into sockets and USB chargers, turning a power strip into a small, modular object that sits proudly on the desk instead of hiding on the floor or under a cable tray.

Designer: Pearson Lloyd for bene

The basic form is a low, rounded tray with one or two ribbed cylinders that dock into it. The cylinders hold either a mains socket or a USB charger, while the tray doubles as a shallow organizer. Module S offers a single power point in a compact footprint. Module M adds one cylinder plus a shelf for pens and small items. Module L fits two cylinders and a wider storage area for more devices and desk clutter.

The modules are designed to be modular beyond their size. The cylinders can be specified with different country sockets or USB chargers, and the threaded sub-assembly simplifies swapping them out. Colour is also part of the system. The tray, cylinder body, and top insert can be mixed from the full bFRIENDS palette, so you can match brand colours, interior schemes, or other accessories instead of defaulting to anonymous black plastic.

The Power Module uses the same recycled bioplastic as the rest of bFRIENDS, sourced from food packaging waste diverted from landfill. Pieces are 3D-printed locally on demand, which eliminates injection-mould tooling and reduces warehousing and transport. That agile manufacturing approach makes it easier to offer many colour combinations and evolve the range without the usual constraints of mass production and minimum order quantities.

The combinations and uses are practically endless. For example, a Module M or L can rest against a fabric privacy panel, with the tray holding a phone and stationery while the cylinder powers a monitor or laptop. By bringing sockets and USB up onto the desk, the module makes plugging in less of a reach and turns cable management into part of the overall desk composition rather than an afterthought you hide under a grommet.

The bFRIENDS Power Module shows what happens when designers look at the boring parts of the office. By combining power, storage, recycled materials, and colour in a single object, it makes the everyday act of plugging in feel a bit more considered. It’s not trying to reinvent electricity, just the way it shows up on your desk, turning something functional into something you might actually want visible in your workspace.

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This School Chair Concept Has 3D-Printable Replacement Parts

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Old school chairs like the Mullca were built to survive decades of abuse, with welded steel frames and bolted parts that could outlast the building itself. That durability was impressive, but it also meant the chairs were impossible to take apart or repair at home if something did eventually break. Contemporary designers are questioning whether indestructibility is the only way to think about longevity, with design for disassembly and repair becoming just as important as raw toughness.

Carrousel is a chair concept by Thibaud Rollet that starts from the familiar silhouette of nostalgic school chairs but shifts the focus to how it is assembled and maintained. Instead of chasing the legendary durability of a Mullca, Carrousel is designed to be easy to produce, disassemble, and repair, with individual elements that can be replaced or even 3D printed by the user at home when parts wear out or need refreshing.

Designer: Thibaud Rollet

The basic construction is straightforward. A bent or laminated wooden frame forms the legs and backrest supports, while horizontal traverse pieces carry the structural load. The seat and backrest are separate panels fixed with four screws each, visible on the surface. Those screws bite into metal threaded inserts embedded in the wood, so panels can be removed and reattached repeatedly without damaging the material or stripping the threads.

The covering L-shaped pieces sit over the joints between the frame and the seat or backrest. These parts are held in place by the screws and inserts, and they are the most likely candidates for 3D printing. Users could swap them out to change colors, textures, or even shapes, turning a functional joint into a place for customization and personal expression without needing professional tools.

The visible screws and simple joinery send a clear message that the chair is meant to be taken apart, not treated as a sealed object. Instead of hiding the assembly, Carrousel uses it as part of the aesthetic language. That openness encourages people to replace worn panels, refresh the look, or tinker with new parts, extending the chair’s life in a way that feels approachable rather than intimidating.

Of course, swapping a backrest or changing the covering pieces can refresh the chair without replacing the whole thing, and the act of playing with those options adds emotional value. When you’ve customized or repaired something yourself, you are more likely to keep it around rather than send it to the curb when a screw loosens or a panel gets scratched.

Carrousel borrows the reassuring outline of a school chair but rewires the logic underneath, making it easy to disassemble, repair, and personalize. It suggests that the next generation of everyday chairs might be less about lasting untouched forever and more about being easy to live with, update, and care for. That shift from indestructible to repairable might end up keeping more furniture out of landfills than any amount of added steel ever could.

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The Future of Retail Fits in This 3D-Printed Suitcase

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Imagine packing the future into a suitcase. Not your clothes or toiletries, but ideas about how we’ll shop, connect, and experience retail spaces in the years to come. That’s exactly what Valencia-based design studio Cul De Sac has done with their latest project, and honestly, it’s one of the coolest design concepts I’ve seen in a while.

The piece is part of Gerflor’s “Portable Architecture” initiative, a traveling exhibition that challenges three international design studios to literally pack their visions of tomorrow into custom suitcases. Think of it as a design thought experiment meets art installation, inspired by Marcel Duchamp’s famous “Box in a Valise” concept where he miniaturized his entire body of work into a portable case.

Designer: Cul De Sac

What makes Cul De Sac’s contribution so compelling is its radical optimism about retail’s future. While many of us have grown accustomed to sterile, product-focused shopping environments, architect and creative director Borja Berna offers a completely different vision. “The future of retail will be human,” he explains. “We come from a past where the product was the center, but the spaces of the future will put the person at the center. They will be places of community, connection, where things happen beyond the purchase.”

That philosophy isn’t just talk. It’s physically manifested in the suitcase’s 3D-printed design, which looks like something between a neural network and organic coral. The structure breathes with these flowing, interconnected forms that evoke energy pathways and human connections. It’s deliberately designed to feel alive, like it’s constantly evolving and adapting, much like the retail spaces Berna imagines for our future.

The choice of 3D printing feels particularly intentional here. This technology allows for organic, impossible-to-manufacture-otherwise shapes that traditional fabrication methods simply can’t achieve. The result is a sculptural piece that captures fluidity and movement in a way that feels almost biological. You can see why they chose this approach when you look at the images: those undulating surfaces and cellular patterns really do suggest something living rather than static.

But here’s where it gets really interesting. The suitcase doesn’t just contain samples of Gerflor’s flooring materials as a reference library. The container itself becomes the statement. As Berna puts it, they wanted “the design itself to summarize our vision of the future of retail.” The piece integrates materials from Gerflor’s Creation range not as mere swatches but as part of the identity itself. In a market saturated with brands competing for attention, materials become the language through which spaces communicate with people and create memorable experiences.

Berna describes the biggest challenge as “condensing usually conceptual ideas into a tangible piece.” And you can feel that tension in the final work, in the best possible way. It’s both abstract and concrete, theoretical and physical. The suitcase manages to be a manifesto, a prototype, and an art object all at once.

This project sits alongside equally intriguing contributions from Studio Banana, who tackled the future of office spaces, and Nini Andrade Silva from Madeira, who explored hotels as experiential gathering places. Together, these three suitcases form a traveling exhibition that will move through seven cities across the Iberian Peninsula, sparking conversations about how we want to inhabit tomorrow’s spaces.

There’s something wonderfully democratic about packaging big architectural ideas into portable, approachable formats. Rather than presenting a massive installation or dense white paper, these studios offer something you can literally walk around, something that invites curiosity and conversation. As Juan Segura, Marketing Manager of Gerflor Iberia, notes, “More than showing product, we want to generate dialogue.”

What I love most about this project is how it reframes retail from transactional to transformational. In an era where online shopping dominates and physical stores struggle to justify their existence, Cul De Sac suggests that the answer isn’t better product displays or flashier signage. It’s about creating spaces where human connection happens, where community forms, where something meaningful occurs beyond the exchange of goods for money.

That 3D-printed suitcase, with its neural-network-like structure, becomes a perfect metaphor: retail spaces as living organisms that facilitate connections between people, emotions, and yes, brands, but in ways that feel organic rather than forced. It’s a vision of shopping as something closer to a social experience than a chore. And really, isn’t that the kind of future we’d all want to pack our bags for?

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How 3D Printing Is Solving Luxembourg’s Affordable Housing Crisis

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Niederanven, a small commune in Luxembourg, now hosts the country’s first 3D-printed residential building. The Tiny House Lux, designed by local practice ODA Architects, marks a significant shift in how municipalities might approach affordable housing on difficult urban sites. Architect Bujar Hasani conceived the project as a practical response to housing shortages. Working with the Niederanven municipality and Coral Architects, he identified narrow, leftover parcels across Luxembourg that traditional construction methods couldn’t accommodate.

The solution arrived through on-site 3D concrete printing, using locally sourced aggregates rather than imported materials. The house stretches long and narrow across its site in Rammeldingen village. At just 3.5 meters wide but 17.72 meters deep, the 47-square-meter structure maximizes what would otherwise be unusable land. A mobile printer extruded standard batching-plant concrete to build the walls in roughly one week, with the complete build finishing within four weeks. The ribbed texture of the printed walls creates a distinctive facade that catches daylight throughout the day, while a lightweight timber frame supports the roof.

Designer: ODA Architects

Inside, the layout reads as a single, clear axis running from the south-facing entrance through to the rear. Service zones tuck to each side, leaving the central corridor open and uncluttered. The entrance and terrace face south, pulling natural light deep into the interior. Film technology provides underfloor heating, powered entirely by solar panels mounted on the roof. This system positions the house as self-sufficient, reducing ongoing energy costs for its occupants.

The project fits within Niederanven’s “Hei wunne bleiwen” program, which translates to “Keep living here.” The initiative targets young adults seeking affordable entry points into Luxembourg’s expensive housing market. The local council selected the first tenant, who moved in shortly after the August 2025 inauguration. The design intentionally excludes features that would make it suitable for elderly residents, keeping the focus on younger demographics.

Not everyone welcomed the innovation. Local political parties DP and LSAP criticized the €320,000 price tag for what they viewed as an experimental project without proven methodology. They raised concerns about chemical additives in the concrete used to speed up hardening, questioning potential health implications. Both parties boycotted the inauguration ceremony in protest. Despite the controversy, the architectural and design community has responded with enthusiasm. Publications from New Atlas to HomeAdore covered the project, recognizing its potential as a replicable model. The key lies in scalability. If deployed across Luxembourg’s leftover urban fragments, this approach could generate hundreds of compact homes without consuming greenfield sites or requiring extensive infrastructure investment.

The Tiny House Lux demonstrates that 3D printing technology has matured beyond novelty status. When paired with thoughtful design and local materials, it offers municipalities a genuine tool for addressing housing shortages. The ribbed concrete walls, efficient layout, and energy autonomy prove that speed and innovation need not compromise quality or comfort. Whether this pilot project sparks wider adoption remains to be seen, but it has already proven that small plots can yield meaningful housing solutions.

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The Tiny Accessory That Gives Your Umbrella Main Character Energy

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You know that feeling when you walk into a coffee shop on a rainy day and have to awkwardly lean your dripping umbrella against the wall, hoping it won’t slide down and crash onto the floor? Or when you get home and realize you’ve been propping your umbrella in the same dusty corner for years because, well, what else are you supposed to do with it? We’ve all been there. And honestly, it’s kind of ridiculous that in 2025, we’re still treating umbrellas like they’re design afterthoughts.

That’s exactly the question that sparked Standpoint, a brilliantly simple solution to a problem we didn’t realize was bothering us. What if your umbrella could just stand on its own? Not leaning, not tucked away, not shoved into some clunky umbrella stand, but actually standing there with a bit of confidence and personality.

Designer: Edwin Tan

Standpoint is a small 3D-printed resin attachment that clips onto the bottom of your umbrella, transforming it from a functional rain shield into something that can hold its own ground, literally and figuratively. It’s one of those designs that makes you wonder why no one thought of it sooner, the kind of idea that feels so obvious once you see it but required someone to actually stop and question the status quo.

The beauty of Standpoint lies in its understated approach. This isn’t some bulky contraption or overwrought design statement. It’s a gentle, minimal base that complements rather than competes with your umbrella. Each base features a soft color gradient that transitions from darker to lighter tones, creating a subtle visual flow that enhances the umbrella’s form without screaming for attention. You get to choose from different base variations, each with its own personality. Some are organic and flowing with petal-like loops, others are more geometric and structured. It’s like picking out jewelry for your umbrella, a small detail that adds unexpected character.

What makes this design particularly smart is how it taps into a bigger conversation happening in the design world right now. There’s this growing movement toward reimagining everyday objects, questioning why things have always been done a certain way, and finding opportunities for improvement in the most mundane corners of our lives. Standpoint fits perfectly into this philosophy. It’s not trying to reinvent the umbrella itself. Instead, it’s asking how we can make an existing object more self-sufficient and expressive in our spaces.

The use of 3D-printed resin is also worth noting. This technology has opened up possibilities for creating small-batch, customizable accessories that would have been prohibitively expensive to manufacture traditionally. You can have multiple bases in different colors and styles, swapping them out based on your mood or aesthetic. It’s the kind of personalization that feels very now, very in tune with how we think about our belongings as extensions of our personal style.

But beyond the practical benefits and the aesthetic appeal, there’s something quietly radical about Standpoint. It celebrates the idea of objects having dignity and presence in our spaces. Your umbrella doesn’t need to hide or apologize for existing. It can stand tall (pun intended) and become part of your interior landscape. In an era where we’re constantly trying to minimize and hide away the functional stuff of daily life, Standpoint takes the opposite approach. It says, let’s make these everyday tools beautiful enough to be visible. The gradient colors, ranging from soft blues and greens to warm corals and neutrals, are clearly influenced by contemporary design trends but feel timeless rather than trendy. They’re sophisticated enough for minimalist interiors but playful enough to bring a smile to your face on a dreary morning when you’re grabbing your umbrella on the way out.

Ultimately, Standpoint is about more than just keeping your umbrella upright. It’s about recognizing that thoughtful design can transform even the smallest moments of our daily routines. It’s a reminder that we don’t have to accept things as they’ve always been, and that sometimes the most delightful innovations come from asking the simplest questions. Your umbrella deserves better than being shoved in a corner. Let it stand proud.

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Top 5 Reasons 3D-Printed Homes Are the Future of Affordable Housing

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The growing fascination with 3D-printed homes stems from their remarkable potential to cut construction costs and drastically shorten building timelines. By embracing this cutting-edge technology, the housing sector is entering a transformative era where homeownership becomes more affordable, sustainable, and accessible. Traditional construction methods are gradually giving way to a streamlined, tech-driven approach that promises efficiency without compromising on quality.

This addresses global housing challenges, such as the construction of resilient, budget-friendly homes in developing regions, and highly personalized, eco-conscious designs. Here is how 3D printing enables the creation of smarter, functional, and visually striking homes for the future.

1. Reduces Construction Costs

One of the biggest advantages of 3D printed homes is their ability to sharply lower construction costs. Automated robotic systems print walls layer by layer, reducing the need for large on-site crews and expensive labor. By incorporating locally sourced, affordable materials, builders can further cut expenses, making homeownership more attainable.

This approach is not only faster but also highly precise. A machine can construct a home in days rather than months, using only the material required. The result is less waste, lower costs, and a more environmentally friendly building process, benefiting both your budget and the planet.

Japanese architecture studio Lib Work, in collaboration with Arup and WASP, has introduced the Lib Earth House Model B, a 1,076-square-foot residence 3D-printed primarily from soil. This single-story home in Kumamoto Prefecture demonstrates how ancient, locally sourced materials can be transformed through modern technology to create environmentally conscious architecture. With gently curved walls, ribbed textures, and a flat roof designed for solar panels and rainwater collection, the structure is subjected to natural constraints while offering a futuristic yet rooted aesthetic.

Built from a mix of soil, sand, lime, and natural fibers, the house celebrates imperfection through visible striations and organic textures that evolve beautifully over time. Inside, the design merges earthy warmth with modern comfort, featuring open-plan spaces, natural light, and climate-regulating walls. Discreet sensors monitor performance, ensuring durability and efficiency. The project redefines sustainable architecture, blending tradition, innovation, and adaptability into a living blueprint for eco-conscious design.

2. Faster Construction

3D-printed homes can be built at remarkable speed, setting them apart from traditional construction. Walls for a small house can be printed in just 24 to 48 hours, a task that would take conventional crews weeks or months. This rapid pace is especially crucial in areas with urgent housing needs, such as disaster-hit regions or communities facing shortages.

The faster building process allows homeowners to move in sooner and turns lengthy projects into efficient, streamlined undertakings. For developers, it means quicker returns and easier scaling. Accelerated construction makes quality, affordable housing more accessible to those who need it most.

3D-printed architecture is moving beyond novelty to become a practical solution for affordable and sustainable housing. In Louth, eastern Ireland, HTL.tech has completed Grange Close, a three-unit terraced social housing project spanning 330 sq m (3,550 sq ft). Each home offers 110 sq m (1,184 sq ft) across two levels, constructed with COBOD’s BOD2 printer. The project was delivered in just 12 working days, from site preparation to handover, making it 35% quicker than conventional methods. Walls were printed using a cement-like mixture extruded layer by layer, while builders added roofing, electrical systems, and finishes.

The homes blend seamlessly into modern housing design, avoiding the ribbed texture typically associated with 3D printing. This contemporary appearance ensures residents feel they are living in fully finished, high-quality dwellings. HTL.tech expects future builds to be completed in as little as nine days, signaling how 3D printing can revolutionize construction by providing faster, cost-effective, and sustainable homes.

3. Enhances Design Flexibility

3D printing gives architects design possibilities beyond traditional construction. Complex curves, unconventional shapes, and intricate details that are costly or impossible with wood or brick become achievable. This technology enables the creation of truly unique, personalized homes that break free from standard rectangular layouts.

From sweeping curved facades to detailed interior wall patterns, 3D printing makes full customization accessible. Homeowners can design spaces that reflect their personal style and lifestyle, turning houses into bespoke works of art. The possibilities are nearly limitless, empowering creativity and allowing each home to be as distinctive and individual as the people who live in it.

QR3D, designed by Park + Associates, is Singapore’s first multi-storey 3D-printed home and a striking vision of future domestic architecture. Rising four stories in Bukit Timah, the house explores how digital manufacturing can transform urban living in a city where space is scarce and innovation is essential. Its façade departs from convention with layered, grooved concrete that openly reveals its 3D-printed origins. With 97% of the walls printed on-site, the structure unites precision and
craft, using texture as both finish and framework while creating visual continuity that flows from exterior to interior.

Inside, a dramatic central void ties the four levels together, bringing daylight and ventilation deep into the plan while amplifying spatial openness. Floating stairs and bridges soften the vertical expanse, turning the void into the home’s defining feature. Combining expressive form with functional efficiency, QR3D showcases how technology and design can converge to create sustainable, adaptable, and distinctly modern housing.

4. Enhancing Sustainability

Sustainability is a major advantage of 3D-printed construction. The process applies materials precisely where needed, producing far less waste than traditional methods. Many 3D printing materials are recycled or locally sourced, reducing transportation and environmental impact while lowering the project’s overall footprint.

Beyond efficiency, 3D-printed homes can incorporate durable, energy-saving features like improved insulation and optimized ventilation. By cutting waste and using eco-friendly materials, these homes support climate-conscious building practices. They benefit the planet while also offering homeowners long-term savings on energy costs, proving that sustainable design can be both practical and environmentally responsible.

Designed by BM Partners and built with COBOD’s BOD2 printer, this residence in Almaty, Kazakhstan, stands as Central Asia’s first 3D-printed home. Created to endure seismic risks and extreme weather, it showcases the resilience of 3D construction. The walls were formed using a specially developed cement mix with a compression strength of nearly 60 MPa, which is much higher than conventional brick or stone, enabling it to withstand earthquakes up to magnitude 7.0. To address Kazakhstan’s harsh climate, insulation of expanded polystyrene concrete was incorporated, ensuring strong thermal and acoustic performance against temperatures ranging from –57°C to +49°C.

After the layered printing process, the structure was finished with doors, windows, and interiors using traditional techniques. The single-floor home spans 100 sq m, featuring a simple yet functional layout, generous glazing, and a bright living space. Completed within two months, it demonstrates the efficiency, durability, and design possibilities of modern 3D-printed construction.

5. Resilient and Accessible Housing

3D-printed homes offer exceptional strength, often exceeding that of traditional construction. Their continuous, monolithic walls have no weak points, making them highly resistant to extreme weather, earthquakes, and other natural disasters. This durability provides safety and peace of mind, especially in vulnerable regions.

Beyond resilience, 3D printing makes housing more accessible worldwide. Lower costs and faster construction allow organizations to deliver high-quality, permanent homes to disaster-affected areas and low-income communities. This technology serves as a powerful tool for social impact, providing secure, dignified housing and helping to address global housing challenges efficiently and effectively.

3D-printed architecture is proving to be a promising answer to housing accessibility, by Portugal-based Havelar. The single-storey home spans 80 sq m and was printed in just 18 hours using COBOD’s BOD2 printer. The process involved extruding a cement-like mixture in layers to form the structure, followed by traditional building work such as adding windows, doors, roofing, and other amenities, and the project was completed within two months.

The residence features ribbed walls that reveal its 3D-printed origin, with a layout comprising a central kitchen and dining area, two bedrooms, a living room, and a bathroom. Though modest compared to luxury printed homes, it prioritizes practicality and efficiency.

3D-printed homes deliver remarkable durability, often surpassing traditional construction. Their seamless, monolithic walls eliminate weak points, making them highly resistant to extreme weather, earthquakes, and other natural hazards. This inherent strength ensures safety and peace of mind, particularly in areas prone to environmental risks.

The post Top 5 Reasons 3D-Printed Homes Are the Future of Affordable Housing first appeared on Yanko Design.