Tag Archives: Manufacturing

FilaLoom Weaves Yarn Into 3D Prints Without Extra Motors

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Blue and lilac yarn snakes through white plastic ribs in one of FilaLoom’s samples, giving the object a basketlike appearance that makes me want to pick it up. The appeal is easy to understand: intricate geometry only gets you so far when you want an object with a textile character. FilaLoom brings actual yarn into the process, letting the fibers remain visibly, unapologetically themselves.

Developed by industrial and computational designer Joram de Haas for his master’s thesis in Integrated Product Design at TU Delft, FilaLoom lets a desktop 3D printer automatically weave yarn into printed objects. It addresses a practical fabrication problem: combining printed structures with thread without making yarn placement a separate manual task. It’s a working research project, with DIY files available, rather than a finished consumer accessory.

Designer: Joram de Haas

The prototype uses a Bambu Lab A1 fitted with a yarn-depositing tool and a parking station. The printer builds plastic anchor points, picks up the tool, and guides yarn between them. It then parks the tool and resumes printing, securing the yarn where needed. That alternating sequence allows the structure and its textile elements to develop together, rather than requiring someone to thread a completed plastic skeleton afterward.

I like the restraint in the mechanism. FilaLoom uses the printer’s existing movement system, with no additional electronics. A mechanical coupling handles tool changes, while a spring-loaded spool provides adjustable yarn tension. The machine already knows how to move precisely; this attachment gives that movement another useful job.

Visually, the blue-and-lilac sample is a persuasive introduction. Its white vertical elements remain clearly legible, while the colored yarn establishes a contrasting horizontal rhythm. Neither material disappears into the other. To my eye, that makes the construction more interesting than a uniformly textured surface. You can follow the relationship between the ribs and the thread, which gives the pattern a purpose beyond decoration. It looks assembled through its own making.

The thesis also explores soft yarn textures and cable-driven interactions, extending the idea beyond basketlike objects. That range matters because a recognizable woven pattern could easily become the project’s entire identity. I’d be more interested in seeing designers use the process to decide where an object should bend, where it needs structure, or where a different surface character would be welcome. Those are design questions worth experimenting with.

The DIY format gives curious makers somewhere to start. De Haas’s GitHub repository provides printable component files and Grasshopper scripts for generating compatible GCode, the instructions that direct the printer’s movements. Still, that’s a more involved proposition than downloading a decorative planter file and pressing print. For a general audience, the useful distinction is that FilaLoom is an invitation to experiment with a fabrication method, not a ready-made home gadget.

There are physical compromises, too. The researchers report that the attachment reduces the A1’s usable combined printing-and-weaving volume to 54% of its original build volume. Yarn tension also needs care: too much can deform a print or pull it off the build plate. These constraints make the prototype more convincing to me, because its expanded capabilities come with clearly described boundaries.

I wouldn’t judge this project by how quickly it might replace a familiar manufacturing process. Its more immediate value is giving designers a way to test combinations they might otherwise have to assemble by hand. Even a small sample can help answer whether a pattern deserves to become a larger object. That feels like an appropriately useful ambition for a research tool.

For me, the strongest outcome would be an object whose form genuinely needs both materials. The yarn shouldn’t have to justify itself as a decorative flourish, and the plastic shouldn’t merely serve as a bulky substitute for thread. FilaLoom makes that relationship available for exploration. I’d happily trade another perfectly smooth printed vase for an experiment that leaves a little more to discover under your fingertips.

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ELEGOO DAY 2026 Invites the World to Create, Share, and Grow With Nexprint

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Every idea deserves somewhere to go, and for a lot of 3D printing hobbyists, that place has been missing. ELEGOO wants to change that with ELEGOO DAY 2026, launching September 10, its annual celebration built around bringing creators together on Nexprint. This year folds in a creator fund, a design contest, new model generators, and a sale, all pointing toward one goal: getting more people to create, share, and be part of a growing community.

Most of that action happens on Nexprint, ELEGOO’s open-source 3D model platform, built on the belief that creation should be open to anyone with an idea. Think of it as the hub tying everything together: models get uploaded, tools get discovered, and creators get a real reason to keep contributing. That shift is slowly turning ELEGOO from a printer maker into a community built around making.

Designer: ELEGOO

Click Here to Submit Now | Click Here To Buy Now.

The centerpiece is the new $1,000,000 Creator Fund, ELEGOO’s way of recognizing and rewarding people for sharing 3D models on Nexprint, not just paying for output but investing in the community itself. Rewards start with your very first submission, no waiting for likes or rankings to climb first. Individual models can earn up to $100, and stacking incentives push that ceiling to $300 per model.

There’s more structure built in too. Extra rewards unlock at 3, 5, 10, 20, and 50 submissions, so consistency pays off as much as any single hit model. Monthly rankings hand exclusive prizes to the top five creators, including actual ELEGOO printers, while a new bonus-card mechanism can push individual payouts even higher. It feels less like a marketing gimmick and more like a system built to grow alongside its creators.

From September 10 to October 30, ELEGOO runs the MakeItReal contest on Nexprint, and the premise couldn’t be simpler: take a flat idea, in whatever form it takes, and give it dimension, no design background required. There’s no theme to chase, just that shift from flat to physical. Winning entries will be picked and announced on November 20, each earning up to $300 in ELEGOO coupons for the trouble.

The idea behind it is almost sentimental for a hardware company, echoing ELEGOO’s belief that 3D printing works best as a creative outlet, not a manufacturing shortcut. A photo on your phone or a doodle in a notebook can end up as something you actually hold, not just imagine. Creators don’t need advanced modeling skills to compete, either. Nexprint’s upcoming Text and Image to 3D Generator lets anyone shape a contest entry straight from a photo or a written description, no CAD needed.

That generator is one of three new tools ELEGOO just added to Nexprint, alongside a Vase Generator and a Nameplate Generator, each built to make creation easier for beginners and veterans alike. All three do the same basic job: they take a drawing, a photo, or a few typed words and turn it into a printable model within minutes. None of it replaces real design skill, but it removes the blank-page problem that stops many from starting.

Put it together, and the loop makes sense. Someone sketches an idea, runs it through a generator, shares the result on Nexprint, enters it into MakeItReal, and picks up Creator Fund rewards along the way. None of those steps demand deep technical skill. This is the connected ecosystem ELEGOO keeps referencing, not a slogan, but an actual sequence anyone can walk through starting today.

All this activity lines up with the ELEGOO DAY Sale, with discounts of up to 54% on selected products, running September 8 through 29 with regional pricing, ELEGOO’s way of putting that ecosystem into more hands. The Saturn 4 Ultra 16K brings high-resolution resin printing for detailed sculptures, jewelry prototypes, and miniatures. The Centauri Carbon 2 Combo handles multicolor prints for home décor and personalized gifts. The Mars 5 Ultra offers a smaller resin option with sharp detail for tight workspaces.

What stands out about ELEGOO DAY 2026 isn’t any single feature; it’s the shape of the whole thing. A hardware company built its business on printers, then quietly built systems for sharing, competing, and earning that turn a machine into a habit. For ELEGOO, that’s what building an ecosystem means: more chances for people to create, connect, and turn ideas into something real.

Click Here to Submit Now | Click Here To Buy Now.

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This $119 Ultrasonic Cutter Sense Materials And Auto-Adjusts To Cut EVA Foam, Resin, PLA 3D Prints

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There are power tools, and then there are smart tools. A power tool gives you brute force; a smart tool gives you controlled, consistent results. Think of a simple drill that just spins versus one that manages its own torque to avoid stripping a screw. For delicate work like trimming EVA foam for a cosplay project or cleaning up support structures on a 3D print, you definitely want the smart one. The problem is, most handheld cutters are pretty basic, giving you one speed and just hoping for the best.

The SonicMax Slice 10 is aiming for that higher IQ. It’s a cordless ultrasonic cutter that senses the material you’re cutting and adjusts its own power output in real time. Slice through dense plastic and it pushes harder; trim the thin walls of a resin print and it eases back. This adaptive system, combined with cooling that prevents heat-related power drops, makes it feel like proper workshop equipment in the palm of your hand. It runs at 40kHz, delivers up to 50 watts of dynamic peak power, and does all of this without a single cable getting in your way.

Designer: SonicMax

Click Here to Buy Now: $119 $215 (45% off). Hurry, only 13/500 left! Raised over $124,000.

Most ultrasonic cutters on the market use transducers with a mechanical quality factor, or Qm, somewhere between 150 and 250. A higher Qm means the transducer converts electrical energy into vibration more efficiently, which directly translates to less heat generated during use. SonicMax claims a Qm of over 500 for the Slice 10, and lab data backs that up with a verified measurement of 541.1. That’s roughly two to three times higher than a typical competing tool, and it’s the foundational reason the Slice 10 can sustain longer sessions without thermal drama. That single transducer decision cascades into everything else, from runtime and cut quality to how comfortable the tool actually stays in your hand.

As the blade meets resistance, the Slice 10’s Smart Material Auto-Detection reads that feedback and adjusts power output and vibration frequency without you touching anything. Cutting through a stiff chunk of EVA foam feels different from trimming the thin walls of a resin print, and the tool responds to each material accordingly. You’re not locked into a fixed setting that works okay for most things but perfectly for nothing. The system also preserves cut quality across a long session, where material resistance can shift as the blade warms. The result is consistent cuts from the first pass to the last, regardless of what you’re running the blade through.

Heat is the reason most cordless ultrasonic cutters force you to stop every five to ten minutes, and the Slice 10 attacks that problem from two directions. Corded bench tools sidestep this issue by drawing steady power and dissipating heat more easily, but you give all of that up the moment you cut the cord. The high-efficiency transducer generates less heat from the start, and the built-in active cooling fan manages whatever thermal load does build up during a session. Overheat protection kicks in automatically at 80 degrees Celsius at the motherboard level, so the tool protects itself without you having to babysit it. You only appreciate how good this is after you’ve spent a session on a cutter that kept shutting itself off on you mid-cut.

A 5000mAh 21700 lithium-ion battery powers the Slice 10, and SonicMax made it user-replaceable, which you’ll end up appreciating far more than any spec sheet number. The 21700 is a high-performance cell format found in premium flashlights and power tools, so sourcing replacements from SonicMax or compatible third-party brands should never be a problem. SonicMax’s own branded replacement cell is rated for 500 charge cycles at 80% capacity retention, a reasonable lifespan for a tool you’re actually putting to work regularly. An 18W USB-C pass-through charging system brings it from zero to full in about 70 minutes, and the tool keeps running while plugged in. Claimed runtime sits at up to four hours, and when you run low mid-project, swapping in a spare takes seconds.

Blade choice gives the Slice 10 a lot of its bench-tool personality. SonicMax offers five blade styles that let the same handheld body take on very different jobs: a Standard Utility Blade for everyday trimming, a Precision Long Blade for tighter access and more delicate reach, a Fine Chisel Blade for careful cleanup work, a Heavy Duty Chisel Blade for more aggressive material removal, and a Wide Flat Scraper Blade for broader surface work. That range matters because it turns the Slice 10 into something closer to a compact cutting system than a one-trick knife. If you’re the kind of maker who bounces between foam, plastic, supports, edges, and surface cleanup in the same afternoon, this is where the tool starts looking properly versatile.

Lift-to-Activate sensing turns the tool on when you pick it up and off when you set it down, keeping your fingers away from controls mid-session and preventing accidental activation on the bench. A small OLED display shows real-time power output and battery level, so you’re never left guessing how much runtime remains. Built-in LED lighting illuminates the cut line, which sounds like a minor detail until you’re trying to trace a clean edge on a dark-colored print at your desk at some ungodly hour. Auto-shutdown kicks in after five minutes of idle, and low-battery protection activates before the cell drops to a damaging voltage. Together, these details make the Slice 10 feel like a tool that respects your workflow rather than constantly asking you to manage it.

The Slice 10 measures 260.5mm long and 28mm across, weighing 236 grams, keeping it firmly in single-hand, pen-grip territory across long sessions. Just the Slice 10 is available for a discounted $119, and ships with 10 replaceable Standard Utility blades. Upgrade to the Maker’s Bundle for $169 and you get the Slice 10 along with 50 blades spread across the five blade profiles (standard, precision long, fine chisel, heavy duty chisel, and flat scraper) as well as a 5000mAh replacement battery. If you’re looking for versatility and pushing your prints to the max, the $50 price bump does bring a fair share of value. You can also buy extra blades and batteries as add-ons. Shipping is expected to begin mid-October 2026 with worldwide delivery available, and SonicMax has not publicly confirmed warranty terms at the time of writing.

Click Here to Buy Now: $119 $215 (45% off). Hurry, only 13/500 left! Raised over $124,000.

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LightMake Just Solved the Hidden Costs of Multi-Color 3D Printing

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Multi-color FDM printing has always had a hidden cost that most users simply accept. Every time a single-nozzle machine switches filaments, it has to push the previous color out of the hotend before laying down the next one. That costs time, and the wasted material accumulates into a tower on the build plate that nobody actually wanted there. The LightMake L4 was designed to make that trade-off unnecessary.

LightMake is a company with roots in precision engineering and high-speed motion control. Its L4 desktop 3D printer is built around four independent, always-preheated print heads, each dedicated to its own color or material. Think of it less as a printer wearing multiple hats and more as a small, dedicated team, each member already at their station when the job starts.

Designer: LightMake

Click Here to Buy Now: $1,299 $2,399 (46% off). Hurry, only 145/550 left! Raised over $2.07 million.

That dedicated-head setup kills the purge problem at its source. Because each nozzle handles only one filament, the L4 replaces massive purge towers with a minimal nozzle prime at the start of a job, with no purge waste during subsequent color changes. LightMake’s own testing puts material loss at under one gram, compared to the more than 237 grams for conventional multi-color setups. For anyone producing prints for clients, that recovered filament adds up quickly.

Speed is the other half of the multi-color problem, and the L4’s approach is just as direct. Because all four heads are always preheated and ready, the machine’s real-time coordination cuts toolhead switching to one second. LightMake says that can boost multi-color print speed by up to 79%, though that’s based on internal testing and will vary with job complexity and color count.

Beyond switching speeds, the L4 doesn’t shortchange on space. In single-color mode, the build volume stretches to 354 × 370 × 386 mm, large enough to produce full-size objects in a single continuous run, no splitting or post-assembly required. Multi-color jobs work within a slightly reduced 354 × 350 × 386 mm footprint, still generous enough that most projects won’t need to be scaled down or broken into parts.

Multiply that advantage by four, and you get the L4’s batch production mode. In that configuration, the workspace splits into four zones of 177mm x 195mm x 386mm each, allowing four complete identical or mirrored models to print simultaneously. For a maker selling finished pieces or a studio on a deadline, that’s the kind of output math that changes what you think a single desktop machine can do.

All of that output only matters if the machine stays accurate over time, and that’s where the L4 makes a longer-term argument. It uses 8 sets of industrial-grade direct-drive linear motors on the XY axes, replacing rubber belts and pulleys with non-contact magnetic propulsion. There’s no belt to stretch and no tension to adjust. LightMake rates the architecture at more than 50,000 hours, though the rails do need periodic lubrication.

Beyond longevity, the system enables what LightMake calls closed-loop control, where the motor actively monitors and corrects its position in real time. That continuous correction also keeps layer shifts from creeping in mid-print, which is good news for anyone who’s ever come back to a long job only to find it ruined somewhere around hour three. The ±1 µm figure the company quotes refers strictly to motion precision, not final print accuracy, which matters. Optical sensors achieve 30 µm absolute alignment between heads, so material transitions land exactly where intended, and parts meant to fit together actually do.

Running four moving heads at speed creates its own structural challenges, which the L4 addresses with a monolithic die-cast frame paired with vibration compensation algorithms. Together, they absorb the kinetic energy of rapid toolhead transitions and keep surface quality consistent from the first layer to the last. When a head parks between turns, it retracts automatically by 5mm, so idle nozzles never drag across already-printed surfaces.

On the software side, the L4 works with LightMake’s own slicing tool, which handles automatic model arrangement for multi-head jobs and includes a farm management dashboard that connects multiple printers in one place. It’s free and open-source, unlike most paid alternatives. The machine also comes with a 6.5-inch full-color touchscreen, dual HD cameras with AI-powered failure detection, and RFID material recognition that adjusts print parameters automatically.

The L4’s reach can grow beyond its four built-in toolheads, too. LightMake’s optional Auto Filament Expansion and Dry System, or FEDS, pairs each head with additional filament inputs, pushing the total color count from four up to 16. For makers working on more ambitious multi-color designs, that’s a considerable expansion of creative range without requiring an entirely different machine to get there.

The L4 is positioned as a machine for makers who want to turn their output into something that actually generates income, whether that means selling finished pieces, producing prototypes, or running a compact print operation. What it ultimately argues is that the familiar trade-offs of multi-color desktop printing, such as speed against quality and ambition against material waste, were always choices rather than fixed limits, and the LightMake L4 helps your designs break free of those constraints.

Click Here to Buy Now: $1,299 $2,399 (46% off). Hurry, only 145/550 left! Raised over $2.07 million.

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SonicMax Finally Built a Wireless Cutter That Stays Cool Enough to Use

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Ultrasonic cutters have been a genuine revelation for makers. Running at 40,000 vibrations per second, the blade doesn’t force its way through material; it glides, leaving clean, precise edges on foam, leather, plastic, and 3D-printed parts. The SonicMax Slice 10 takes that concept further by going completely cordless and, more importantly, addressing the one frustration that has followed every similar tool: heat.

The appeal of cutting without cords is obvious. What’s less appealing is when the tool becomes too hot to hold, forcing a break every five to 10 minutes. That kind of heat doesn’t just affect the experience; it affects the output, too. Plastic melts unevenly, detailed prints deform at the edges, and cuts that were supposed to be clean end up looking anything but.

Designer: SonicMax

Click Here to Buy Now: $119 $215 (45% off). Hurry, only 80/500 left! Raised over $104,000.

SonicMax addressed this with a redesigned transducer that, according to the company, achieves a quality factor, or Q value, of over 500, compared to around 200 for typical designs. The higher that number, the more energy goes into cutting rather than radiating as heat. It doesn’t make for a flashy headline, but it makes a tangible difference in how long you can actually work without stopping.

The Slice 10 also adjusts in real time as it cuts. Rather than operating at a fixed power level, the system reads resistance from the material and changes its output power and vibration frequency accordingly. This means that whether you’re cutting through a soft piece of EVA foam or pushing through a thicker section of a 3D-printed model, the tool is constantly self-correcting to keep the cut smooth and consistent.

That combination shows up quickly in a working session. Support removal on a detailed 3D print comes out clean instead of tearing. Leather cuts without compression or fraying. Foam and plastic sheet separate with sharp, neat edges. For anyone doing post-processing work on resin or FDM prints, building cosplay armor, or finishing scale models, the improvement is fairly immediate and fairly obvious.

The cordless experience is backed by a 5,000mAh 21700 lithium-ion battery that SonicMax says can deliver up to four hours of cutting on a single charge. What’s more practical, though, is that the cell is user-replaceable. Standard 21700 format means you can carry a spare and swap it out in seconds if needed, essentially extending a session indefinitely without waiting for anything to charge.

For those who’d rather stay plugged in, the Slice 10 supports pass-through charging via USB-C, so you can keep cutting while the battery tops up. A full charge from zero takes roughly 70 minutes, supported by 18W of fast charging. It’s the kind of flexibility that accounts for the reality of a busy workshop, where stopping to wait for a tool to charge isn’t really an option.

Keeping temperatures down is a two-part approach. The redesigned transducer generates less waste heat by design, and a built-in active cooling fan moves whatever heat builds up away from the blade area. There’s also a lift-to-activate sensor that powers the tool on when picked up and shuts it off when set down, quietly helping with both battery life and heat management throughout the session.

Rounding things out is an OLED display showing live battery level, output power, and tool status, so you’re never guessing how much runtime you have left. A built-in LED light illuminates the cut line, especially useful for intricate detail work on small model parts. Overheat protection activates at 80°C motherboard temperature, and the tool shuts itself down after five minutes of idle time.

At 236g and 260.5mm long, it’s light and slim enough for extended use without fatigue. Each unit ships with 10 spare blades, a hex wrench, a blade retaining block, four fastening screws, a dual USB-C cable, and a user manual. SonicMax has built this as a system where thermal management, adaptive control, and battery flexibility serve one consistent goal: more time cutting.

Click Here to Buy Now: $119 $215 (45% off). Hurry, only 80/500 left! Raised over $104,000.

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Artefilo Makes Home Objects From Elephant Grass and Hospital Cabinets

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The sustainable home goods market has a specific credibility problem. Products marketed as eco-conscious often get there through incremental adjustments, reducing a percentage of virgin plastic, switching to a recyclable box, or sourcing from a slightly shorter supply chain. The result is a kind of sustainability theater that satisfies certification requirements without fundamentally changing either what objects are made from or how they find their way into a home.

Artefilo approaches that question differently. Based in Edam in the Netherlands, the independent design atelier makes contemporary home objects from materials most manufacturers wouldn’t consider: elephant grass combined with recycled plastic, reclaimed wood fibres, brick dust, and salvaged hospital cabinetry. Each piece is made locally in small batches, and the materials are chosen with the specific intention of giving discarded resources a renewed place in a living space.

Designer: Guido Baratta

The choice of Edam isn’t incidental. The city has a long tradition of ceramics craftsmanship, and Artefilo draws on that heritage without replicating it, taking the spirit of making by hand and applying it to a different material palette. Elephant grass combined with recycled plastic, for example, produces a surface that reads as handmade pottery without the environmental cost of extracting virgin clay or new plastic.

The rest of the material list is equally unexpected. Reclaimed wood fibres and brick dust bring texture and warmth to objects that might otherwise feel too composed, while recycled hospital cabinets contribute rigidity and durability that wouldn’t be obvious from the source. Finding these materials requires locating waste streams that industry hasn’t already claimed, then working out what form they can credibly take in a domestic setting.

Making in small batches has real consequences for what the objects can be. It means pieces that are genuinely one-of-a-kind, because material conditions are never exactly repeatable from one batch to the next. Brick dust carries different tones from different sources; reclaimed wood fibres vary in density and grain. That variability isn’t a flaw in the production model; it’s built into it deliberately.

The underlying premise is that objects shape the atmosphere of a space, not dramatically, but persistently. Something placed on a windowsill or bookshelf gets seen many times a day, and that repetition adds up. Artefilo’s design philosophy treats each piece as something that participates in the daily texture of a home rather than simply occupying it. The materials reinforce that, each carrying a visible trace of its previous life.

The atelier distributes through its own online store and through a local stockist in Edam. The collection is small, deliberately so, and the material sourcing means it isn’t trying to scale into something it isn’t. For a design category that often talks about slowing down without quite managing it, Artefilo appears to have structured itself around that idea from the ground up.

The post Artefilo Makes Home Objects From Elephant Grass and Hospital Cabinets first appeared on Yanko Design.

The Lamp Switch Nobody Bothered to Design Well, Until Now

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The inline switch is one of those details that nobody seems to question. Most floor and table lamps carry a cheap plastic switch dangling somewhere down the cord, lightweight and hollow, built for low cost rather than durability or feel. These switches are touched constantly throughout a lamp’s life, yet they’re rarely given the same attention as the lamp they’re attached to. That’s a strange kind of oversight.

That disconnect is precisely what the Modal Inline Switch sets out to address. Instead of relegating the switch to an afterthought on the cord, it approaches the component with the same consideration typically reserved for the fixture it serves. The result is a CNC-machined, bead-blasted, anodized aluminum switch with a soft circular form, a more deliberate feel in the hand, and a presence that matches the fixtures it sits alongside.

Designer: Andrew King

Think about the last time you clicked off a bedside lamp or nudged a floor lamp switch with your foot in the dark. The switch barely registers as a design object, something you feel more than see, yet that click says a lot about the quality of the lamp. A cheap plastic click gives you exactly that impression. The Modal, by contrast, gives you something that actually feels worth touching.

Standard inline switches are injection-moulded plastic, hollow and lightweight, built purely for low cost. Modal swaps all of that for bead-blasted, anodized aluminum, giving it a controlled matte finish that stands apart from any typical lamp cord component. It’s cooler to the touch, heavier in the hand, and more substantial in feel. That added weight, which initially seemed like an inefficiency, turned out to be one of its defining qualities.

The circular form wasn’t arrived at immediately. Earlier prototypes explored angular geometries and segmented shapes before settling on a rounder, gentler profile, one that feels natural to nudge with a foot as well as press with a finger. The button mechanism went through its own refinement; early versions were unstable due to a mismatch between the larger cap and a smaller actuator, a problem the guided button cap system resolves.

The switch’s housing is assembled mechanically rather than with adhesive, meaning it can be taken apart and repaired if needed. That’s not something most people would think to look for in a lamp switch, but it speaks to the broader thinking behind Modal: that making something from better materials, with more intentional construction, can shift how long it’s valued and kept, rather than simply replaced when something gives out.

The Modal Inline Switch isn’t trying to reinvent how a lamp works. It sits on the same cord, does the same on/off job, and doesn’t ask for any more attention than it needs. But it’s designed to hold its place, literally and aesthetically, rather than disappear behind furniture or dangle somewhere on the floor. It’s the kind of quiet intervention that’s easy to overlook until you actually reach for it.

The post The Lamp Switch Nobody Bothered to Design Well, Until Now first appeared on Yanko Design.

adidas BB.01 is first 3D-printed basketball shoe built to improve stability and flexibility on court

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While the world is fixated on who’s making it to the quarterfinals of the FIFA World Cup. adidas thinks it’s done enough for the love of the game with the Trionda, and now it’s time to shift focus to basketball. To do that, the sportswear giant is bringing 3D-printed footwear innovation to the hardwood with the launch of adidas BB.01. It is the first 3D-printed basketball shoe to hit the market, in an eye-catching combination of Solar Red and Orbit Grey.

The 3D printed basketball shoe from adidas is a definite head-turner. It’s called the adidas BB.01 “Solar Red/Orbit Grey,” and it’s nothing like the traditional canvas, textile, and foam silhouettes. While most shoe midsoles are molded in factories, the BB.01 is printed entirely from resin in layers instead.

Designer: adidas

The basketball shoe is part of adidas’ Project R.A.P (Radical Athlete Perception). The program ensures that adaptive manufacturing is not just an experimental category but an actual way to create functional, court-worthy footwear. Based on this ideology, adidas BB.01 has been a long time coming.

The much-anticipated footwear finally has a release date and a price. Fans should be able to get their feet into the 3D-printed marvel starting July 14, when it will be available through the adidas Confirmed app for $250. Meticulously combining “cutting-edge digital manufacturing with elite on-court performance,” the shoe features Orbit Grey in the base, which, in contrast, is highlighted by the Solar Red upper cage. The Three Stripes logo is present on the heel, from where it extends upward toward the collar.

Since the footwear is designed to complement the wearer’s performance on the court, its 3D printed midsole is designed to handle the impact and keep the player “stable through cuts and landings.” The footwear weighs only 15.13 oz (428 g) and comes with its most striking resin outer shell on top of the engineered midsole, which utilizes a lattice design across the sidewalls. This form factor allows the shoe to flex with the twisting nature of the foot. Higher-density printing is also carried out around the toes and heels for stability.

adidas BB.01 is not an attractive shoe on the outside alone. On the inside, it also features a soft textile bootie that locks the foot in place, ensuring support and comfort. A flagbearer of the future of 3D printing in the footwear industry, adidas BB.01 will release on July 14, but you can start registering for it as early as July 9 through the company website.

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This Vase Was Made From Aluminum Tubes That Would’ve Been Thrown Away

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Vases occupy an awkward corner of product design. Most exist somewhere between functional and decorative without committing to either, and the result is a category that rarely surprises. Ceramic ones carry craft tradition, glass ones depend on color and transparency, and the novelty options try to be sculptural without much conviction behind them. It’s a crowded space that doesn’t often ask interesting questions.

The Offcut Aluminum Vase starts from a different premise. Its form didn’t come from sketching vessel shapes or looking for the next minimalist curve. It came from staring at the end of a rack of industrial aluminum profiles, tubes, and sections waiting to be put to use. That cross-sectional view of bundled profiles, the overhead pattern nobody usually notices, is where the whole design began.

Designer: Raphael Klug

The construction is direct: actual aluminum offcuts bundled together, each piece a different cross-section. Circular tubes of varying diameters sit alongside square and rectangular hollow channels, all cut to different lengths that create a staggered, stepped silhouette when assembled. The look is instantly readable to anyone who has spent time near a metalworking shop or materials supplier, and distinctly strange to everyone else.

What’s surprising is how naturally it functions as a vase. Each opening, whether a round tube or a square channel, holds a single stem at a height set by that profile’s cut length. A tall flower finds one tube, a shorter bloom another, a delicate, small-stemmed flower a third. The structure of the object quietly distributes stems at different levels without any deliberate arrangement on your part.

The visual tension between the material and its setting is part of the appeal. Aluminum profiles don’t belong on a shelf with fresh flowers, and that friction is doing real work. The matte silver surface reads as cold and precise until something organic is placed inside it, and the contrast becomes the whole point. The industrial origin doesn’t disappear; it becomes what makes the flowers harder to ignore.

The choice to use actual offcuts rather than new aluminum cut to look like offcuts also matters. Most of this material would otherwise end up as leftover stock or be discarded at the end of a production run. Using it this way doesn’t require additional processing; the profiles arrive already shaped, already finished, and carrying the full character of their industrial origin without modification.

The vase holds its own even without flowers in it. The stepped arrangement of sections at different heights reads as a small sculptural object that could sit on a shelf as comfortably empty as it does full. The form doesn’t need flowers to complete it, which means that when you do add them, the combination feels considered rather than accidental.

It’s a rare thing when a design object’s material, form, and function all trace back to exactly the same source. Here they do. The offcuts are the structure, the structure is the form, and nothing about their industrial origin has been hidden or softened along the way. The workshop and the shelf turn out to have considerably more in common than most vases would ever admit.

The post This Vase Was Made From Aluminum Tubes That Would’ve Been Thrown Away first appeared on Yanko Design.

Five Years, One Bowl, and a Woodturner Who Refused to Quit

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Most of us abandon a project after a few weeks of frustration. Olivier Gomis sat on one for five years, then came back and finished it. The Bowl Curved Pursuit is Gomis’s latest release, a handcrafted woodturning that looks, at first glance, like it was generated by some algorithmic design software rather than made by two hands in a workshop. The curves twist and rotate in a way that feels almost mathematically precise, each wood segment following the one before it in a pattern that spirals elegantly around the bowl’s body. It’s the kind of object that makes you look twice, then a third time, trying to work out how it was actually made. That’s kind of the point.

Gomis, a French woodturner and furniture maker, has been building a reputation for designs that sit right at the edge of what woodworking is supposed to look like. His work doesn’t whisper “rustic” or “farmhouse.” It says something closer to “sculpture” and means it. His portfolio spans coloured pencil vases, massive segmented bowls, and geometric pieces that wouldn’t look out of place in a contemporary design gallery. But the Curved Pursuit feels like a moment of arrival, a design he clearly couldn’t let go of until he got it right.

Designer Name: Oliveri Gomis

The process is deceptively methodical. Gomis built the bowl by gradually stacking and rotating wood pieces before cutting them on a table saw, then mounted the entire structure on a lathe and carved it into its final form. That sequence, stacking, rotating, cutting, turning, sounds simple enough until you consider how much precision is required at every stage. A miscalculation in the rotation angle and the whole pattern collapses into something ordinary. The five-year gap between conception and completion makes a lot more sense once you understand those margins.

What gets me about this bowl is how visible the thinking is. You can trace the logic of the design just by looking at it. The segments aren’t decorative afterthoughts, they’re structural decisions, each one informing the curve that follows. For a piece of functional decor, that’s a rare quality. Most objects in this category are either beautiful or interesting. The Curved Pursuit manages to be both, and does it without trying to explain itself.

The price sits at $372 USD, available to order on commission. That number might give some people pause, but I’d argue it’s almost suspiciously reasonable for what you’re getting. This isn’t a production piece pulled from a conveyor belt. It’s a hand-built object that required five years of problem-solving to even exist. Commissioning one means you’re essentially getting a slice of a very specific creative obsession, which is not something that ends up on most people’s shelves by accident.

There’s also a broader conversation happening here about craft in the age of mass production. We live at a moment when almost anything can be printed, extruded, or manufactured at scale, and yet the appetite for handmade objects keeps growing. Not out of nostalgia exactly, but out of a genuine desire to own something that carries a human fingerprint. Gomis’s work taps directly into that. His YouTube channel documents every step of his process with no shortcuts hidden, which is both a smart move and a generous one. Watching him work makes the finished objects more meaningful, not less. You come away from his videos understanding not just how a piece was made, but why it matters.

The Bowl Curved Pursuit is the kind of design that rewards attention. It doesn’t immediately give everything away. The more you sit with it, the more the geometry reveals itself, the precision, the patience, the particular stubbornness it takes to return to something after five years and finally decide it’s ready. Somewhere between design and craft, between art object and kitchen counter, Gomis has made something genuinely hard to categorize. If that sounds like a compliment, it is.

The post Five Years, One Bowl, and a Woodturner Who Refused to Quit first appeared on Yanko Design.