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The transformation of Hangzhou’s old steelworks into a park is a tribute to China’s industrial past in a city of the future The congressional hearing about Chinese AI engine DeepSeek held in the US this April has propelled Hangzhou, the heart of China’s new digital economy, to the headlines. With companies such as DeepSeek, Unitree and Alibaba – whose payment app allowed me to get on the metro without needing to buy a ticket – headquartered in Hangzhou, China’s future in AI, robotics and automation is emanating from this city. Getting off the metro in the suburban area of Gongshu, the sun was shining on an old steelworks, overgrown with vines and flowers now that it is being transformed by Jiakun Architects and TLS Landscape Architecture into the Grand Canal Steelworks Park. The unfolding trade war might help to accelerate China’s journey into an automated future, leaving the world of factories behind, yet this new public space shows an impulse to commemorate the country’s economic history, and the forces that have shaped its contemporary built environment. Starting in Hangzhou and travelling more than 1,700km to Beijing, the Grand Canal is an engineering project built 2,500 years ago to connect the different regions of eastern China. The country’s geography means rivers flow from west to east: from higher elevations, culminating in the Himalayas, to the basin that is the country’s eastern seaboard. Historically, it was difficult to transport goods from mercantile centres in the south, including Hangzhou and Suzhou, to the political centre in Beijing up north. As a civil engineering project, the Grand Canal rivals the Great Wall, but if the Great Wall aims to protect China from the outside, the Grand Canal articulates Chinese commerce from the inside. The historic waterway has been an important conduit of economic and cultural exchange, enabling the movement of people and goods such as grain, silk, wine, salt and gravel across the country. It became a UNESCO World Heritage site in 2014. The state‑owned enterprise collective was founded, and the physical facility of Hangzhou steelworks built, in the 1950s during the Great Leap Forward, when China strove for self‑sufficiency, and wended its way through the country’s economic trajectory: first the economic chaos of the 1960s, then the reforms and opening up in the 1980s. Steel remains an important industry today in China, home to more than half of the world’s production, but the listing of the Grand Canal enabled city leaders to move production to a new site and decommission the Hangzhou steelworks. External mandates, including entry into the World Trade Organization, the Beijing Olympics and UNESCO listings, have been instrumentalised in the country to pursue a range of internal interests, particularly economical and real estate ones.  In 2016, the factory was shut down in 150 days, in what the company describes as a ‘heroic’ effort, and the site attracted tourists of industrial ruins. In the competition brief, Hangzhou planners asked for ‘as much of the existing blast furnaces and buildings’ as possible to be preserved. When I arrived in China in 2008, Chinese cities were notorious for heritage demolition, but today urban planners and architects increasingly work to preserve historical buildings. Just like several industrial sites in Beijing and Shanghai have been transformed into major public and cultural spaces in the past decade, in the Yangtze River Delta – of which Hangzhou is a major hub – several industrial sites along the Grand Canal’s course are being given a new lease of life. Today, the three blast furnaces of Hangzhou steelworks remain, with the silhouettes of their smokestacks easily recognisable from a distance. The project preserves as much as possible of the aesthetics of a steel mill with none of the danger or dust, ready to welcome instead new community facilities and cultural programmes in a vast and restored piece of landscape. Situated in a former working‑class district that has been gentrifying and welcoming young families, the new park is becoming a popular venue for music festivals, flower viewing in springtime and year‑round picnics – when I visited, parents were teaching their children to ride a bicycle, and students from Zhejiang University, about a kilometre from the park, were having lunch on the grass. New programmes accommodated in the old coke oven and steel mills will include a series of exhibition halls and spaces welcoming a wide range of cultural and artistic workshops as well as events – the project’s first phase has just completed but tenant organisations have not yet moved in, and works are ongoing to the north of the park. On the day of my visit, a student art exhibition was on display near one of the furnaces, with works made from detritus from the site, including old packing containers. The rehabilitated buildings also provide a range of commercial units, where cafés, restaurants, shops, a bookshop, ice cream shop and a gym have already opened their doors to visitors.  Several structures were deemed structurally unsafe and required demolition, such as the old iron casting building. The architects proposed to partially reconstruct it on its original footprint; the much more open structure, built with reclaimed bricks, now houses a semi‑outdoor garden. Material choices evoke the site’s industrial past: weathered steel, exposed concrete and large expanses of glazing dominate the landscape. The widespread use of red, including in an elevated walkway that traverses the park – at times vaguely reminiscent of a Japanese torii gate in the space below – gives a warm and reassuring earthiness to the otherwise industrial colour palette. Elements selected by the designers underwent sanitisation and detoxification before being reused. The landscaping includes old machinery parts and boulders; recuperated steel panels are for instance inlaid into the paving while pipes for pouring molten steel have been turned into a fountain. The train tracks that once transported material continue to run through the site, providing paths in between the new patches of vegetation, planted with local grasses as well as Japanese maples, camphors and persimmon trees. As Jiawen Chen from TLS describes it, the aesthetic feels ‘wild, but not weedy or abandoned’. The landscape architects’ inspiration came from the site itself after the steelworks’ closure, she explains, once vegetation had begun to reclaim it. Contaminated soil was replaced with clean local soil – at a depth between 0.5 and 1.5 metres, in line with Chinese regulations. The removed soil was sent to specialised facilities for purification, while severely contaminated layers were sealed with concrete. TLS proposed phytoremediation (using plants to detoxify soil) in selected areas of the site ‘as a symbolic and educational gesture’, Chen explains, but ‘the client preferred to be cautious’. From the eastern end of the park, hiking trails lead to the mountain and its Buddhist temples. The old steel mill’s grounds fade seamlessly into the hills. Standing in what it is still a construction site, a sign suggests there will soon be a rowing centre here.  While Jiakun Architects and TLS have prioritised making the site palatable as a public space, the project also brings to life a history that many are likely to have forgotten. Throughout, the park incorporates different elements of China’s economic history, including the life of the Grand Canal and the industrial era. There is, for example, a Maoist steelworker painted on the mural of one of the cafés, as well as historical photographs and drawings of the steelworks peppering the site, framed and hung on the walls. The ambition might be in part to pay homage to steelworkers, but it is hard to imagine them visiting. Gongshu, like the other suburbs of Hangzhou, has seen rapid increases in its property prices.  The steelworks were built during the Maoist era, a time of ‘battling with earth, battling with heaven, battling with humanity’, to borrow Mao’s own words. Ordinary people melted down pots and pans to surpass the UK in steel production, and industry was seen as a sharp break from a traditional Chinese way of life, in which humans aspire to live in harmony with their environment. The priorities of the government today are more conservative, seeking to create a garden city to attract engineers and their families. Hangzhou has long represented the balmy and sophisticated life of China’s south, a land of rice and fish. To the west of the city, not far from the old steelworks, are the ecologically protected Xixi wetlands, and Hangzhou’s urban planning exemplifies the Chinese principle of 天人合一, or nature and humankind as one.  Today, Hangzhou is only 45 minutes from Shanghai by high‑speed train. The two cities feel like extensions of one another, an urban region of 100 million people. The creation of the Grand Canal Steelworks Park reflects the move away from heavy industry that Chinese cities such as Hangzhou are currently making, shifting towards a supposedly cleaner knowledge‑driven economy. Yet the preservation of the steelworks epitomises the sentimental attitude towards the site’s history and acts as a reminder that today’s middle classes are the children of yesterday’s steelworkers, drinking coffee and playing with their own children in grassy lawns next to shuttered blast furnaces.  The park’s second phase is already nearing completion, and the competition for the nearby Grand Canal Museum was won by Herzog & de Meuron in 2020 – the building is under construction, and should open at the end of this year. It is a district rich in history, but the city is resolutely turned towards the future.  2025-06-02 Reuben J Brown Share AR May 2025CircularityBuy Now

Researchers from the National University of Singapore (NUS) have developed a 3D printed, self-powered mechanoluminescent (ML) photonic skin designed for communication and safety monitoring in underwater environments. The stretchable device emits light in response to mechanical deformation, requires no external power source, and remains functional under conditions such as high salinity and extreme temperatures. The findings were published in Advanced Materials by Xiaolu Sun, Shaohua Ling, Zhihang Qin, Jinrun Zhou, Quangang Shi, Zhuangjian Liu, and Yu Jun Tan. The research was conducted at NUS and Singapore’s Agency for Science, Technology and Research (A*STAR). Schematic of the 3D printed mechanoluminescent photonic skin showing fabrication steps and light emission under deformation. Image via Sun et al., Advanced Materials. 3D printing stretchable light-emitting skins with auxetic geometry The photonic skin was produced using a 3D printing method called direct-ink-writing (DIW), which involves extruding a specially formulated ink through a fine nozzle to build up complex structures layer by layer. In this case, the ink was made by mixing tiny particles of zinc sulfide doped with copper (ZnS:Cu), a material that glows when stretched, with a flexible silicone rubber. These particles serve as the active ingredient that lights up when the material is deformed, while the silicone acts as a soft, stretchable support structure. To make the device more adaptable to movement and curved surfaces, like human skin or underwater equipment, the researchers printed it using auxetic designs. Auxetic structures have a rare mechanical property known as a negative Poisson’s ratio. Unlike most materials, which become thinner when stretched, auxetic designs expand laterally under tension. This makes them ideal for conforming to curved or irregular surfaces, such as joints, flexible robots, or underwater gear, without wrinkling or detaching. Encapsulating the printed skin in a clear silicone layer further improves performance by distributing mechanical stress evenly. This prevents localized tearing and ensures that the light emission remains bright and uniform, even after 10,000 cycles of stretching and relaxing. In previous stretchable light-emitting devices, uneven stress often led to dimming, flickering, or early material failure. Mechanical and optical performance of encapsulated photonic skin across 10,000 stretch cycles. Image via Sun et al., Advanced Materials. Underwater signaling, robotics, and gas leak detection The team demonstrated multiple applications for the photonic skin. When integrated into wearable gloves, the skin enabled light-based Morse code communication through simple finger gestures. Bending one or more fingers activated the mechanoluminescence, emitting visible flashes that corresponded to messages such as “UP,” “OK,” or “SOS.” The system remained fully functional when submerged in cold water (~7°C), simulating deep-sea conditions. In a separate test, the skin was applied to a gas tank mock-up to monitor for leaks. A pinhole defect was covered with the printed skin and sealed using stretchable tape. When pressurized air escaped through the leak, the localized mechanical force caused a bright cyan glow at the exact leak site, offering a passive, electronics-free alternative to conventional gas sensors. To test performance on soft and mobile platforms, the researchers also mounted the photonic skin onto a robotic fish. As the robot swam through water tanks at different temperatures (24°C, 50°C, and 7°C), the skin continued to light up reliably, demonstrating its resilience and utility for marine robotics. Comparison of printed photonic skin structures with different geometries and their conformability to complex surfaces. Image via Sun et al., Advanced Materials. Toward electronics-free underwater communication While LEDs and optical fibers are widely used in underwater lighting systems, their dependence on rigid form factors and external power makes them unsuitable for dynamic, flexible applications. In contrast, the stretchable ML photonic skin developed by NUS researchers provides a self-powered, adaptable alternative for diver signaling, robotic inspection, and leak detection, potentially transforming the toolkit for underwater communication and safety systems. Future directions include enhanced sensory integration and robotic applications, as the team continues exploring robust photonic systems for extreme environments. Photonic skin integrated into gloves for Morse code signaling and applied to robotic fish and gas tanks for underwater safety monitoring. Image via Sun et al., Advanced Materials. The rise of 3D printed multifunctional materials The development of the photonic skin reflects a broader trend in additive manufacturing toward multifunctional materials, structures that serve more than a structural role. Researchers are increasingly using multimaterial 3D printing to embed sensing, actuation, and signaling functions directly into devices. For example, recent work by SUSTech and City University of Hong Kong on thick-panel origami structures showed how multimaterial printing can enable large, foldable systems with high strength and motion control. These and other advances, including conductive FDM processes and Lithoz’s multimaterial ceramic tools, mark a shift toward printing entire systems. The NUS photonic skin fits squarely within this movement, combining mechanical adaptability, environmental durability, and real-time optical output into a single printable form. Read the full article in Advanced Materials Subscribe to the 3D Printing Industry newsletter to keep up with the latest 3D printing news. You can also follow us onLinkedIn and subscribe to the 3D Printing Industry YouTube channel to access more exclusive content. At 3DPI, our mission is to deliver high-quality journalism, technical insight, and industry intelligence to professionals across the AM ecosystem.Help us shape the future of 3D printing industry news with our2025 reader survey. Featured image shows a schematic of the 3D printed mechanoluminescent photonic skin showing fabrication steps and light emission under deformation. Image via Sun et al., Advanced Materials.

Browning Industrial Park / MULTIPLE Architecture & UrbanismSave this picture!© Bruno Dias Ventura Architects: MULTIPLE Architecture & Urbanism Area Area of this architecture project Area:  15562 m² Year Completion year of this architecture project Year:  2024 Photographs Photographs:Bruno Dias Ventura Manufacturers Brands with products used in this architecture project Manufacturers:  Joris Ide, Ozklux, VMZINC, ZumtobelMore SpecsLess Specs Save this picture! Text description provided by the architects. The Browning Park project emerged from a strong ambition: to transform a derelict industrial site - once home to Herstal's weapons industry - into a vibrant green lung at the heart of the city. Over time, the site had become a sealed and fragmented grey zone, disconnected from its surrounding neighborhoods. The project was driven by a desire to reverse this fragmentation by creating a continuous pedestrian path, reopening the site, and reconnecting it with its urban context. This central promenade became the backbone of the design, around which inclusive and fully accessible public spaces were thoughtfully arranged.Save this picture!Save this picture!Save this picture!One of the most significant challenges stemmed from the condition of the site itself. Decades of industrial activity had left behind polluted soils and substantial infrastructural remnants. A deep soil remediation process - reaching depths of up to 12 meters - was required before any development could begin. This necessary intervention also offered the opportunity to reshape the topography and increase permeable surfaces, thus improving rainwater infiltration and boosting the site's resilience to climate change. Another key challenge involved balancing heritage preservation with new uses. The former Browning factory, for instance, had to be partially dismantled, structurally reinforced, and reimagined, while retaining its historical identity.Save this picture!In terms of construction, the project focused on reusing existing structures wherever possible. The factory's original metal frame was preserved and strengthened, and a new timber roof was added to create a covered public hall. Adjacent to it, the garden integrates remnants of the steel framework, which now supports wild vegetation and forms a robust, weather-resistant landscape feature. These gestures embody the project's commitment to circularity and a low environmental footprint.Save this picture!Save this picture!Save this picture!Save this picture!The spatial layout of the park was carefully designed to accommodate a wide variety of users and age groups. Along the main pedestrian spine, a sequence of diverse atmospheres and uses unfolds: a skatepark, a playground, picnic areas, outdoor fitness zones, a square with a fountain, a woodland area, and a flower garden. All these features are barrier-free and fully accessible.Save this picture!The project was developed in close dialogue with the people of Herstal and future park users. A series of public consultations and co-creation workshops were held throughout the design process, ensuring the park would reflect local needs and aspirations. The involvement of municipal services, which will oversee the long-term maintenance of the park, the hall, and the intergenerational house, was also crucial to ensuring the project's durability and success.Save this picture! Project gallerySee allShow less Project locationAddress:Herstal, BelgiumLocation to be used only as a reference. It could indicate city/country but not exact address.About this office MaterialSteelMaterials and TagsPublished on June 05, 2025Cite: "Browning Industrial Park / MULTIPLE Architecture & Urbanism" 05 Jun 2025. ArchDaily. Accessed . <https://www.archdaily.com/1030623/browning-industrial-park-multiple-architecture-and-urbanism&gt ISSN 0719-8884Save世界上最受欢迎的建筑网站现已推出你的母语版本!想浏览ArchDaily中国吗?是否 You've started following your first account!Did you know?You'll now receive updates based on what you follow! Personalize your stream and start following your favorite authors, offices and users.Go to my stream

June 3, 20255 min readAre We Ready for Death in Space?NASA has quietly taken steps to prepare for a death in space. We need to ask how nations will deal with this inevitability now, as more people start traveling off the planetBy Peter Cummings edited by Lee Billings SciePro/Science Photo Library/Getty ImagesIn 2012 NASA stealthily slipped a morgue into orbit.No press release. No fanfare. Just a sealed, soft-sided pouch tucked in a cargo shipment to the International Space Station (ISS) alongside freeze-dried meals and scientific gear. Officially, it was called the Human Remains Containment Unit (HRCU). To the untrained eye it looked like a shipping bag for frozen cargo. But to NASA it marked something far more sobering: a major advance in preparing for death beyond Earth.As a kid, I obsessed over how astronauts went to the bathroom in zero gravity. Now, decades later, as a forensic pathologist and a perennial applicant to NASA’s astronaut corps, I find myself fixated on a darker, more haunting question:On supporting science journalismIf you're enjoying this article, consider supporting our award-winning journalism by subscribing. By purchasing a subscription you are helping to ensure the future of impactful stories about the discoveries and ideas shaping our world today.What would happen if an astronaut died out there? Would they be brought home, or would they be left behind? If they expired on some other world, would that be their final resting place? If they passed away on a spacecraft or space station, would their remains be cast off into orbit—or sent on an escape-velocity voyage to the interstellar void?NASA, it turns out, has begun working out most of these answers. And none too soon. Because the question itself is no longer if someone will die in space—but when.A Graying CorpsNo astronaut has ever died of natural causes off-world. In 1971 the three-man crew of the Soviet Soyuz 11 mission asphyxiated in space when their spacecraft depressurized shortly before its automated atmospheric reentry—but their deaths were only discovered once the spacecraft landed on Earth. Similarly, every U.S. spaceflight fatality to date has occurred within Earth’s atmosphere—under gravity, oxygen and a clear national jurisdiction. That matters, because it means every spaceflight mortality has played out in familiar territory.But planned missions are getting longer, with destinations beyond low-Earth orbit. And NASA’s astronaut corps is getting older. The average age now hovers around 50—an age bracket where natural death becomes statistically relevant, even for clean-living fitness buffs. Death in space is no longer a thought experiment. It’s a probability curve—and NASA knows it.In response, the agency is making subtle but decisive moves. The most recent astronaut selection cycle was extended—not only to boost intake but also to attract younger crew members capable of handling future long-duration missions.NASA’s Space MorgueIf someone were to die aboard the ISS today, their body would be placed in the HRCU, which would then be sealed and secured in a nonpressurized area to await eventual return to Earth.The HRCU itself is a modified version of a military-grade body bag designed to store human remains in hazardous environments. It integrates with refrigeration systems already aboard the ISS to slow decomposition and includes odor-control filters and moisture-absorbent linings, as well as reversed zippers for respectful access at the head. There are straps to secure the body in a seat for return, and patches for name tags and national flags.Cadaver tests conducted in 2019 at Sam Houston State University have proved the system durable. Some versions held for over 40 days before decomposition breached the barrier. NASA even drop-tested the bag from 19 feet to simulate a hard landing.But it’s never been used in space. And since no one yet knows how a body decomposes in true microgravity (or, for that matter, on the moon), no one can really say whether the HRCU would preserve tissue well enough for a forensic autopsy.This is a troubling knowledge gap, because in space, a death isn’t just a tragic loss—it’s also a vital data point. Was an astronaut’s demise from a fluke of their physiology, or an unavoidable stroke of cosmic bad luck—or was it instead a consequence of flaws in a space habitat’s myriad systems that might be found and fixed? Future lives may depend on understanding what went wrong, via a proper postmortem investigation.But there’s no medical examiner in orbit. So NASA trains its crews in something called the In-Mission Forensic Sample Collection protocol. The space agency’s astronauts may avoid talking about it, but they all have it memorized: Document everything, ideally with real-time guidance from NASA flight surgeons. Photograph the body. Collect blood and vitreous fluid, as well as hair and tissue samples. Only then can the remains be stowed in the HRCU.NASA has also prepared for death outside the station—on spacewalks, the moon or deep space missions. If a crew member perishes in vacuum but their remains are retrieved, the body is wrapped in a specially designed space shroud.The goal isn’t just a technical matter of preventing contamination. It’s psychological, too, as a way of preserving dignity. Of all the “firsts” any space agency hopes to achieve, the first-ever human corpse drifting into frame on a satellite feed is not among them.If a burial must occur—in lunar regolith or by jettisoning into solar orbit—the body will be dutifully tracked and cataloged, treated forevermore as a hallowed artifact of space history.Such gestures are also of relevance to NASA’s plans for off-world mourning; grief and memorial protocols are now part of official crew training. If a death occurs, surviving astronauts are tasked with holding a simple ceremony to honor the fallen—then to move on with their mission.Uncharted RealmsSo far we’ve only covered the “easy” questions. NASA and others are still grappling with harder ones.Consider the issue of authority over a death and mortal remains. On the ISS, it’s simple: the deceased astronaut’s home country retains jurisdiction. But that clarity fades as destinations grow more distant and the voyages more diverse: What really happens on space-agency missions to the moon, or to Mars? How might rules change for commercial or multinational spaceflights—or, for that matter, the private space stations and interplanetary settlements that are envisioned by Elon Musk, Jeff Bezos and other tech multibillionaires?NASA and its partners have started drafting frameworks, like the Artemis Accords—agreements signed by more than 50 nations to govern behavior in space. But even those don’t address many intimate details of death.What happens, for instance, if foul play is suspected?The Outer Space Treaty, a legal document drafted in 1967 under the United Nations that is humanity’s foundational set of rules for orbit and beyond, doesn’t say.Of course, not everything can be planned for in advance. And NASA has done an extraordinary job of keeping astronauts in orbit alive. But as more people venture into space, and as the frontier stretches to longer voyages and farther destinations, it becomes a statistical certainty that sooner or later someone won’t come home.When that happens, it won’t just be a tragedy. It will be a test. A test of our systems, our ethics and our ability to adapt to a new dimension of mortality. To some, NASA’s preparations for astronautical death may seem merely morbid, even silly—but that couldn’t be further from the truth.Space won’t care of course, whenever it claims more lives. But we will. And rising to that grim occasion with reverence, rigor and grace will define not just policy out in the great beyond—but what it means to be human there, too.

Architizer is thrilled to welcome Lyndon Neri, Hon. FAIA, co-founder of 2023 Firm of the Year Neri&Hu Design and Research Office, to the jury for the 2025 Vision Awards. As one of the most respected voices in contemporary architecture and design, Neri brings a deeply interdisciplinary perspective that aligns powerfully with the program’s celebration of conceptual rigor and visual innovation. To have your work seen by Neri and secure a place in the running for global publication this year, Architizer cordially invites you to submit your best architectural concepts, images and ideas to this year’s Vision Awards: Share My Vision Based in Shanghai and working globally, Architizer’s 2023 Firm of the Year Neri&Hu is known for its boundary-defying approach to design — where architecture, interiors and product design are all treated as part of a singular, research-driven narrative. With a stunning portfolio of richly layered cultural projects, Neri&Hu’s work expresses a commitment to contextual storytelling and material exploration at every scale. The firm’s projects are recognized not just for their aesthetic sensitivity, but for the conceptual clarity that underpins each spatial gesture. Educated at the University of California, Berkeley and the Harvard Graduate School of Design, Neri is equally celebrated as an educator and theorist. In recent years, he has held prominent teaching positions at Harvard, Yale, Berkeley and Princeton, where he was appointed as Visiting Faculty in 2024. His editorial and written contributions — including Persistence of Vision: Shanghai Architects in Dialogue and Neri&Hu’s monograph Thresholds: Space, Time and Practice — have helped frame an emergent dialogue around contemporary Asian architecture and its role in global discourse. Neri’s presence on the 2025 Vision Awards Jury is particularly exciting given the program’s expansive exploration of architectural ideation across every medium. Categories for architectural drawings, models, renderings and conceptual designs all speak directly to Neri’s longstanding interest in the process and craft of architecture, from concept to construction. His insights will undoubtedly help shape a new generation of design thinking through this year’s program. Sketch for Aranya Art Center by Neri&Hu Design and Research Office, Qinhuangdao, China. Neri joins a stellar judging panel that includes fellow architectural luminaries such as Daniel Libeskind, Steven Holl, Winka Dubbeldam and Suchi Reddy — all united in the search for the most inspiring architectural ideas and visual work from around the world. Entries for the 2025 Vision Awards are open, with a Main Entry Deadline of June 6th, 2025. Winners will be featured in Architizer’s Visionary 100, a definitive guide to the architecture industry’s most innovative creators, and see their work published on Architizer’s new book How to Visualize Architecture. Think you belong among them? Take part in the Vision Awards and show the world your boldest architectural visions! Click the button below to get started: Enter the Vision Awards Featured image: The Walled – Tsingpu Yangzhou Retreat by Neri&Hu Design and Research Office, Yangzhou, China The post Master of Architectural Research Lyndon Neri Joins the 2025 Vision Awards Jury appeared first on Journal.

At some point in the last decade, we’ve all experienced the awkward balancing act: lying in bed, arms raised, tablet swaying dangerously above us as if testing the laws of gravity. Enter the Tablift MaxPro, a flexible, adjustable stand that feels less like a device and more like a personal assistant dedicated solely to your comfort. Instead of juggling positions, it effortlessly holds your tablet steady, allowing you to browse hands-free at the perfect viewing angle, every single time. The MaxPro builds elegantly on an already successful design. Its look is distinctively functional, thoughtfully designed with a charm that’s uniquely purposeful, making its practical brilliance clear from the first use. You get four independently adjustable steel gooseneck legs, each with a protective rubber sleeve and a grip that sticks like it’s clinging to relevance in the age of standing desks. These legs are longer and more robust than before, giving the MaxPro better reach, higher elevation, and stability that feels nearly physics-defying. Designer: Greg Thüne (Primer Studios) Click Here to Buy Now: $38 $65 (42% off). Hurry, only 327/500 left! While the original Tablift exists online as a product success story, the MaxPro gives it a clever upgrade in the form of a 5-angle tilt system. With it, you can fine-tune your screen’s position from upright work mode to full recline binge-watching, no micro-adjustments or pillow origami required. Whether you’re doomscrolling on your phone, flipping through a digital cookbook, or calling your boss in pajama bottoms, the MaxPro keeps everything comfortably in frame. It handles devices up to 12.9 inches wide, and it doesn’t care if you’ve wrapped yours in a tank of a case or left it bare. It’s easy to appreciate how well it slides into everyday life. In the kitchen, it stands tall over flour-dusted countertops without tipping. On the couch, it flexes like it’s been doing yoga with Adriene. In bed, it grants that rare luxury of using your tablet without turning into a human origami swan. For the remote worker with two screens but one desk, it’s the second monitor stand you didn’t know you needed. And yes, for the fitness crowd, it stays eye-level during yoga or floor workouts without requiring a break to reposition. There’s also a joy in how unapologetically tactile it is. Nothing digital about it—just a physical object with physical utility. No apps. No firmware updates. Just unfold, insert your device, set the angle, and you’re off. It collapses down neatly too, its spindly legs folding inward like a retreating Transformer. Toss it into a tote bag or tuck it in a drawer; it doesn’t fight back. The MaxPro comes in three colors this time, because even utilitarian tools deserve a bit of flair. Kickstarter backers can snag one early, with optional add-ons like a screen cleaner and tote bag that feel more like thoughtful gestures than upsells. What the Tablift MaxPro truly excels at is not flashy tech, it’s the seamless convenience and practical comfort it brings to everyday life. In a world drowning in algorithmic solutions and smart-this or AI-that, a physically elegant answer to a common frustration feels strangely refreshing. It doesn’t buzz or glow or send notifications. It just works. And that, somehow, makes it one of the smarter designs on the market. Click Here to Buy Now: $38 $65 (42% off). Hurry, only 327/500 left!The post 13 Years Later, This Is Still The Best iPad Stand Available Today… And It Just Got An Upgrade first appeared on Yanko Design.

We may earn a commission from links on this page.In 2023, I decided to update my Apple Watch after consistently failing to wear my Series 4 for a number of years. I sold that one on Poshmark and began looking at newer models to find one with enough features to convince me to actually wear it. I opted to get a Series 8, although the Series 9 had just been released, as I was buying two: one for my mom and one for myself. As it turns out, that was a great decision.If you're searching for a new wearable or considering upgrading yours, you might also be wondering which of the older Apple Watch models is still useful today. My Series 8 is holding up beautifully three years after it was introduced, so I'm a big proponent of using older devices as long as possible. But not all Apple Watches will work as well as the Series 8 does in 2025. Don’t buy a watch Apple doesn’t support anymoreWe have to draw the line somewhere: Seven of Apple's watches are no longer supported, meaning they won't receive any software or security updates anymore. In addition, you run the risk that the watch will no longer be compatible with your iPhone or certain apps. In short, you shouldn't buy a watch that Apple doesn't support. That includes the following:Apple Watch Series 0Apple Watch Series 1Apple Watch Series 2Apple Watch Series 3Apple Watch Series 4Apple Watch Series 5Apple Watch SE (first-gen) While the company does currently support the Series 6, it is next in line to join this list. It's not clear when that will happen, but you can be sure it will. We'll see next week—when Apple reveals watchOS 26—whether the watch will be supported another year. If not, it'll be stuck on watchOS 11 for good.Performance and other generational Watch improvementsThere are considerations for older Apple Watch models that extend beyond their ability to simply run the latest operating system. With each generation, improvements are made in some form or another. For instance, the Series 4 introduced the ECG sensor, while the Series 6 introduced the blood oxygen sensor (though Apple had to disable the feature for the Series 9 and Ultra 2 in the U.S. due to a lawsuit). The Series 7 charges faster than its predecessors, and Apple has included fast charging on most watch models since (sorry, Apple Watch SE users).In general, each Apple Watch is faster than the last. Apple tends to put its newest S-Chip—the Apple Watch's processor—in its latest watch series. Simply put, a newer S-chip gives you a faster, more productive product. The Series 6 has an S6 chip, Series 7 has S7, and so on until you hit the Ultras. (The first-generation Ultra has an S8 chip like the Series 8, while the Ultra 2 has an S9 chip like the Series 9.)While there are some core features all currently supported watches share—like workout and swim tracking, sleep tracking, Apple Pay, ECG scanning, and the ability to read and respond to messages—newer models also each have some of their own special advancements and upgrades. Here's a brief list:The Series 7 introduced faster charging, a larger display, and more durable screen.The Series 8 brought temperature sensing, crash detection, and a low-power mode for conserving battery (as did the second-gen Apple Watch SE).The Series 9 debuted new gesture controls, on-device Siri access, more precise location tracking in Find My, and a display with double the brightness of the Series 8.The first-gen Apple Watch Ultra introduced a more durable titanium casing, custom shortcuts to apps and modes via the Action button, a depth gauge and water temperature sensor, more accurate GPS, a 36-hour battery life, and an emergency siren.The Apple Watch Ultra 2 introduced a display with a maximum brightness of 3,000 nits and on-device media playback. The Series 10 introduced the largest display available on a standard Apple Watch and faster charging. If you see a feature you absolutely need in a particular watch model, you'll have to spring for it. But if you just want something for core Apple Watch tasks, you can start to consider older options. Apple's watch comparison site can be a helpful tool for identifying different features among models. Battery degradation All tech degrades to some extent and the Apple Watch is no different—particularly when it comes to the battery. While there are ways to mitigate the problem, over time, the lithium-ion battery powering your wrist computer won't last as long as it used to. That might be a bigger issue than your watch's ability to download and support a new operating system. Apple's warranty doesn't cover batteries that wear down from normal use, and charges $99 for the repair, which you could instead put towards the purchase of a new watch. There is one exception: Battery service is free if you have AppleCare+ and your watch's battery holds less than 80% of its original capacity. You need to take your watch in to an Apple Store or service provider to have it tested. My watch was pre-owned, and while I have no way of knowing if it has its original battery, my battery life has not declined substantially in the two years I've been using it daily. I primarily use mine to track my workouts, vitals, and sleep, which means it's always running. I charge it while I'm in the shower and occasionally for a few minutes before bed, and that's about it. On an average day of constant notifications, mine lasts me a bit longer than the advertised 18-hour mark. Because I have little interest in the small improvements offered by the Series 9 and Series 10—like extra brightness, larger screen size, performance bumps, and advanced cycle tracking—the battery life is what would (or will) compel me to upgrade in the future, but for now, I have not noticed any problems. I asked my mom if she's noticed any battery degradation on hers, since I bought it at the same time and place as mine, and she said no. She uses hers to track walking workouts, talk on the phone, and monitor her sleep and vitals, too.Stick with the Series 7 or newerThoroughly consider which of the features on newer models are actually important to you before making any buying decision and, if you can, stay above a Series 7. The Series 6 is still functional, but, again, it's a matter of time until the company stops acknowledging that one completely. For now, I have been pleasantly surprised by how well my Series 8 has held up for two years. Its touchscreen has never faltered, the external buttons function perfectly, it syncs to all of my apps and devices with no problem, and it does exactly what I need it to do—which is to tell me how many steps I'm taking and how hard I'm exerting myself at the gym. If you're in the market for a smart watch, I see no reason that an older version shouldn't be considered, as long as it still runs the latest operating system. You can save a chunk of change by sourcing an older model from the resale or refurbished markets and put that money away for when Apple drops something super revolutionary in the wearable space. Apple doesn't sell anything below a Series 10 or SE directly anymore, so if you want a 6, 7, 8, or 9, you'll have to check the resale and refurbished markets. You'll definitely save some money that way (a new Series 10 starts at $399, though it can be found on sale, and the refurbished Series 8 I got is selling right now for $219). Apple Watch Series 8 (Renewed) $209.00 at Amazon $220.00 Save $11.00 Learn More Learn More $209.00 at Amazon $220.00 Save $11.00