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.

House of the Future | 1956 Photograph Exhibited at the 1956 Ideal Home Exhibition in London, the House of the Future by Alison and Peter Smithson is a visionary prototype that challenges conventions of domesticity. Set within the context of post-war Britain, a period marked by austerity and emerging optimism, the project explored the intersection of technology, material innovation, and evolving social dynamics. The Smithsons, already recognized for their theoretical rigor and critical stance toward mainstream modernism, sought to push the boundaries of domestic architecture. In the House of the Future, they offered not merely a dwelling but a speculative environment that engaged with the promise and anxieties of the atomic age. House of the Future Technical Information Architects: Alison and Peter Smithson Location: Ideal Home Exhibition, London, United Kingdom Client: Daily Mail Ideal Home Exhibition  Gross Area: 90 m2 | 970 Sq. Ft. Construction Year: 1956 Photographs: Canadian Centre for Architecture and Unknown Photographer The House of the Future should be a serious attempt to visualize the future of our daily living in the light of modern knowledge and available materials. – Alison and Peter Smithson 1 House of the Future Photographs 1956 Photograph © Klaas Vermaas | 1956 Photograph 1956 Photograph 1956 Photograph 1956 Photograph 1956 Photograph 1956 Photograph 1956 Photograph Design Intent and Spatial Organization At the heart of the House of the Future lies a radical rethinking of spatial organization. Departing from conventional room hierarchies, the design promotes an open, fluid environment. Walls dissolve into curved partitions and adjustable elements, allowing for flexible reinterpretation of domestic spaces. Sleeping, dining, and social areas are loosely demarcated, creating a dynamic continuity that anticipates the contemporary concept of adaptable, multi-functional living. Circulation is conceived as an experiential sequence rather than a rigid path. Visitors enter through an air-lock-like vestibule, an explicit nod to the futuristic theme, and are drawn into an environment that eschews right angles and conventional thresholds. The Smithsons’ emphasis on flexibility and continuous movement within the house reflects their belief that domestic architecture must accommodate the evolving rhythms of life. Materiality, Technology, and the Future Materiality in the House of the Future embodies the optimism of the era. Plastics and synthetic finishes dominate the interior, forming seamless surfaces that evoke a sense of sterility and futility. Often associated with industrial production, these materials signaled a departure from traditional domestic textures. The smooth, malleable surfaces of the house reinforce the Smithsons’ embrace of prefabrication and modularity. Technological integration is a key theme. The design includes built-in appliances and concealed mechanical systems, hinting at a utopian and disquieting automated lifestyle. Bathrooms, kitchens, and sleeping pods are incorporated as interchangeable modules, underscoring the house as a system rather than a static structure. In doing so, the Smithsons prefigured later discourses on the “smart home” and the seamless integration of technology into daily life. This material and technological strategy reflects a critical understanding of domestic labor and convenience. The house’s self-contained gadgets and synthetic surfaces suggest a future in which maintenance and domestic chores are minimized, freeing inhabitants to engage with broader cultural and social pursuits. Legacy and Influence The House of the Future’s influence resonates far beyond its exhibition. It prefigured the radical experimentation of groups like Archigram and the metabolist visions of the 1960s. Its modular approach and embrace of technology also foreshadowed the high-tech movement’s fascination with flexibility and systems thinking. While the project was ephemeral, a temporary installation at a trade fair, its theoretical provocations endure. It questioned how architecture could not only house but also anticipate and shape new living forms. Moreover, it crystallized the Smithsons’ ongoing interrogation of architecture’s social role, from their later brutalist housing schemes to urban design theories. In retrospect, the House of the Future is less of a resolved design proposal and more of an architectural manifesto. It embodies a critical tension: the optimism of technological progress and the need for architecture to respond to human adaptability and social evolution. As we confront contemporary challenges like climate crisis, digital living, and shifting social paradigms, the Smithsons’ speculative experiment remains an evocative reminder that the architecture of tomorrow must be as thoughtful and provocative as the House of the Future. House of the Future Plans Axonometric View | © Alison and Peter Smithson via CCA Floor Plan | © Alison and Peter Smithson, via CCA Floor Plan | © Alison and Peter Smithson, via CCA Section | © Alison and Peter Smithson, via CCA Section | © Alison and Peter Smithson, via CCA Section | © Alison and Peter Smithson, via CCA Section | © Alison and Peter Smithson, via CCA Section | © Alison and Peter Smithson, via CCA House of the Future Image Gallery About Alison and Peter Smithson Alison and Peter Smithson were British architects and influential thinkers who emerged in the mid-20th century, celebrated for their critical reimagining of modern architecture. Their work, including projects like the House of the Future, the Robin Hood Gardens housing complex, and the Upper Lawn Solar Pavilion, consistently challenged conventional notions of domesticity, urbanism, and materiality. Central to their practice was a belief in architecture’s capacity to shape social life, emphasizing adaptability, flexibility, and the dynamic interactions between buildings and their users. They were pivotal in bridging the gap between post-war modernism and the experimental architectural movements of the 1960s and 1970s. Credits and Additional Notes Banham, Reyner. Theory and Design in the First Machine Age. MIT Press, 1960. Forty, Adrian. Words and Buildings: A Vocabulary of Modern Architecture. Thames & Hudson, 2000. Smithson, Alison, and Peter Smithson. The Charged Void: Architecture. Monacelli Press, 2001. OASE Journal. “Houses of the Future: 1956 and Beyond.” OASE 75, 2007. Vidler, Anthony. Histories of the Immediate Present: Inventing Architectural Modernism. MIT Press, 2008. Canadian Centre for Architecture (CCA). “House of the Future.”

Architects: Want to have your project featured? Showcase your work by uploading projects to Architizer and sign up for our inspirational newsletters.   Is an architecture firm designing its own studio the equivalent of an artist painting a self-portrait? (Should we coin the term “auto-architecture?”) Perhaps this isn’t a perfect analogy, but it certainly contains parallels that are productive to parse… Studio spaces are distinct from offices in that they not only shape daily rituals and structure relationships between colleagues but also act as an expression of the values at the core of the firm’s design philosophies. Freed from the usual constraints of client briefs, for many firms, designing their own workspace offers a unique opportunity for experimentation and self-expression. The studios featured in this collection span diverse geographies and contexts — from a vaulted school library repurposed as an “anti-office,” to a carbon-neutral warehouse conversion in Sydney, to a minimalist tiled atelier in Casablanca. Despite their differences, each workspace shares a commitment to thoughtful design that blurs the line between functions and offers a vision for cultivating creativity. More than places of production, these studios are active expressions of architectural identity; spaces that support not only what architects make, but how they make it. They also challenge outdated typologies and embrace the hybrid realities of contemporary practice. Skylab HQ By Skylab, Portland, Oregon After spending years in a historic structure in downtown Portland, the Skylab team decided the time had come to create a space that reflected the dynamic nature of their practice. They asked themselves: “How can our studio evolve from a dedicated workspace to a playground for the art and design community? Where can we find a space to integrate gardens, an event venue, and a fabrication shop, as well as our studio?” Leaving the downtown core, they opted to transform a pair of WWII-era prefabricated steel warehouses into a hybrid studio, fabrication lab and cultural venue supporting both architectural production and artistic exchange. Strategic insertions — like a 60-foot-long (18-meter) ridge skylight, 10-foot (3-meter) operable window walls and CLT-framed meeting rooms — maximize daylight and material contrast, balancing industrial grit with biophilic warmth. The adaptive reuse reflects the firm’s ethos of experimentation, extending their design process into the very architecture that houses it. Alexander House By Alexander &CO., Sydney, Australia Jury Winner, Architecture +Workspace, 10th Annual A+Awards Alexander House functions as both studio and experimental prototype, integrating low-carbon construction with hybrid live/work spatial typologies tailored to an evolving architectural practice. While functioning as an architectural residential showcase, the team also works from this home, and their clients meet with them there; the project challenges preconceptions of home, land, family and work. From a voluminous material library in the basement to a concrete mezzanine bench designed for quiet focus, the layout supports varied modes of design work while challenging conventional boundaries between domestic and professional space. Crafted in collaboration with local makers, the building also pioneers sustainability through reclaimed timber linings, carbon-neutral bricks, and a solar system supplying up to 80% of daily energy demand. say architects Community Office By say architects, Hangzhou, China Say Architects’ office reimagines workplace architecture as a life-oriented, materially expressive environment, where exposed I-beams structure both the building and the studio’s daily rhythms. Cantilevered volumes, rope-grown greenery, and integrated misting systems animate the exterior, while steel-framed shelving and model rooms of rich timber textures create a tactile, inspiration-driven interior. Prioritizing adaptability and sensory comfort, the space dissolves traditional partitions in favor of spatial arrangements that align with design habits, offering a studio that is both tool and manifesto. Bohlin Cywinski Jackson, Philadelphia Studio By Bohlin Cywinski Jackson, Philadelphia, Pennsylvania Bohlin Cywinski Jackson’s Philadelphia studio transforms a historic social club (founded in 1923) into a contemporary workspace through adaptive reuse, prioritizing flexibility, daylight and material economy. The goal was to create a highly flexible work environment that would allow designers to move quickly between individual work, impromptu discussions and group meetings throughout the day. Restored terrazzo floors and ornamental detailing anchor a modern layout featuring hoteling desks, collaborative mezzanine zones and panoramic views of the city center.  The design supports agile workflows and hybrid collaboration while integrating repurposed custom furnishings to extend the life cycle of past projects. ADND OFFICE By Atelier Design N Domain, Mumbai, India ADND’s new Bombay headquarters is a richly layered adaptive reuse of a century-old industrial warehouse, reimagined as an expressive design laboratory charged with material experimentation and symbolic nuance. The studio’s soaring central bay reaches 26 feet (8 meters) in height, punctuated by 7-foot (2-meter) pivoting porthole windows that flood the workspace with southern light, evoking a cathedral-like ambiance. Throughout, bespoke interventions — from terrazzo-cast floors and mirrored reception desks to hand-sketched upholstery and looped oak chairs — translate the founders’ personal design dialects into architectural form, creating a space where industrial memory and contemporary authorship converge. Studio Cays X Studio BO By Studio CAYS, Casablanca, Morocco In this Casablanca-based studio, minimalist rigor meets material clarity through tiled walls and seamless epoxy flooring, crafting a luminous, low-maintenance workspace. At its core, a central bench anchors the open-plan layout, fostering daily collaboration and reinforcing the studio’s emphasis on shared ideation within a purified architectural envelope. Smart Design Studio By smart design studio, Alexandria, Australia Jury Winner, Office Interiors (<25,000 sq ft); Jury Winner, Office Building Low Rise, 10th Annual A+Awards Smart Design Studio’s headquarters fuses industrial heritage with cutting-edge sustainability, transforming a conserved warehouse into a carbon-neutral workspace powered by on-site energy and water collection systems. The studio’s open-plan interior is crowned by a mezzanine framed by original steel trusses, while a striking vaulted residence above features self-supporting brick catenary arches — an elegant synthesis of structural economy and sculptural ambition. Designed to reflect the material restraint and innovation of early industrial architecture, the building is a working manifesto for the studio’s interdisciplinary ethos. Architect’s Office at Kim Yam Road By Park + Associates, Singapore Popular Choice Winner, Office Interiors, 10th Annual A+Awards Photos by Edward Hendricks Occupying a former library hall atop a repurposed 1960s school, this studio embraces the latent grandeur of its barrel-vaulted, column-free volume to craft a boundary-less, anti-office environment. Full-height louvered windows invite daylight and breeze through the arching space, while the design resists conventional programming in favor of layered, informal settings that foster creativity and fluid collaboration. Rather than overwrite its past, the intervention amplifies the building’s inherent spatial expression; through adaptive reuse, the architects position atmosphere as architecture. Architects: Want to have your project featured? Showcase your work by uploading projects to Architizer and sign up for our inspirational newsletters.   The post Self-Portrait in Plan: 8 Architecture Studios Designed By Their Owners appeared first on Journal.

In context: TSMC has steadily raised the prices of its most advanced semiconductor process nodes over the past several years – so much so that one analysis suggests the cost per transistor hasn't decreased in over a decade. Further price hikes, driven by tariffs and rising development costs, are reinforcing the notion that Moore's Law is truly dead. The Commercial Times reports that TSMC's upcoming N2 2nm semiconductors will cost $30,000 per wafer, a roughly 66% increase over the company's 3nm chips. Future nodes are expected to be even more expensive and likely reserved for the largest manufacturers. TSMC has justified these price increases by citing the massive cost of building 2nm fabrication plants, which can reach up to $725 million. According to United Daily News, major players such as Apple, AMD, Qualcomm, Broadcom, and Nvidia are expected to place orders before the end of the year despite the higher prices, potentially bringing TSMC's 2nm Arizona fab to full capacity. Also see: How profitable are TSMC's nodes: crunching the numbers Unsurprisingly, Apple is getting first dibs. The A20 processor in next year's iPhone 18 Pro is expected to be the first chip based on TSMC's N2 process. Intel's Nova Lake processors, targeting desktops and possibly high-end laptops, are also slated to use N2 and are expected to launch next year. Earlier reports indicated that yield rates for TSMC's 2nm process reached 60% last year and have since improved. New data suggests that 256Mb SRAM yield rates now exceed 90%. Trial production is likely already underway, with mass production scheduled to begin later this year. // Related Stories With tape-outs for 2nm-based designs surpassing previous nodes at the same development stage, TSMC aims to produce tens of thousands of wafers by the end of 2025. TSMC also plans to follow N2 with N2P and N2X in the second half of next year. N2P is expected to offer an 18% performance boost over N3E at the same power level and 36% greater energy efficiency at the same speed, along with significantly higher logic density. N2X, slated for mass production in 2027, will increase maximum clock frequencies by 10%. As semiconductor geometries continue to shrink, power leakage becomes a major concern. TSMC's 2nm nodes will address this issue with gate-all-around (GAA) transistor architectures, enabling more precise control of electrical currents. Beyond 2nm lies the Angstrom era, where TSMC will implement backside power delivery to further enhance performance. Future process nodes like A16 (1.6nm) and A14 (1.4nm) could cost up to $45,000 per wafer. Meanwhile, Intel is aiming to outpace TSMC's roadmap. The company recently began risk production of its A18 node, which also features gate-all-around and backside power delivery. These chips are expected to debut later this year in Intel's upcoming laptop CPUs, codenamed Panther Lake.

Heydar Aliyev Center | © Olivier Blanchette via Unsplash In contemporary architectural discourse, the building envelope is no longer a passive partition but a dynamic interface capable of interaction, regulation, and adaptation. Amid rising environmental complexity and performance demands, composite materials are emerging as enablers of this transformation. Their potential goes far beyond lightweight strength; composites are redefining what intelligence means in architectural materiality. As the industry pivots toward energy-conscious design, real-time responsiveness, and multi-functional skins, composites provide structural solutions and performative systems. In this context, the envelope becomes a site of intelligence. From Passive Shells to Active Systems For centuries, architectural skins served primarily as barriers, blocking weather, enclosing space, and symbolizing permanence. But the 21st century demands more. We require façades that filter air and light, mediate thermal flux, integrate sensors, and generate power. Traditional materials, limited by monolithic performance and weight, have struggled to adapt. Composites, by contrast, are inherently systemic. They are engineered layers rather than singular substances. Through the integration of fibers and matrices, composites enable architectural envelopes that perform structurally while accommodating embedded systems such as thermal insulation, acoustic control, impact resistance, and photoreactivity. These characteristics make them prime candidates for high-performance envelopes in buildings and infrastructure alike. In the Qatar Integrated Railway Project, composite roofing and FRP façade panels were employed to meet the demands of the harsh desert environment. This solution reduced structural loads and improved thermal performance while ensuring long-term durability in a climate defined by extremes. Performance Layering and Embedded Intelligence What distinguishes composites from conventional materials is their capacity to combine multiple performance layers in one unified system. Instead of applying insulation, waterproofing, and cladding in sequence, a composite panel can consolidate these into a single prefabricated, high-performance element. A compelling example is the Eco Casa in Australia, designed by Ian Wright, which used frameless DuFLEX composite panels. The result was an environmentally conscious home with significantly reduced material waste, enhanced thermal performance, and minimized emissions. These outcomes demonstrate how composites offer design efficiency and ecological responsibility. The capacity for prefabrication and integration is particularly valuable in settings where labor conditions, transportation logistics, or weather exposure make traditional multi-layered construction inefficient or impractical. Composites with a Nervous System: Sensing the Built Environment Recent innovations in smart composites extend these capabilities further. By embedding fiber-optic or piezoresistive sensors into composite assemblies, architects and engineers can develop building skins that sense stress, temperature changes, humidity, or vibration in real-time. These responsive façades can feed data into building management systems, enabling performance optimization or alerting maintenance teams to signs of wear or structural fatigue. This functionality has been successfully explored in transport infrastructure. The King Abdullah High-Speed Rail Station in Saudi Arabia used 27-meter composite sandwich panels to span vast distances with minimal support. The lightweight system reduced the need for extensive reinforcement while enabling thermal and mechanical performance in a climate that demands resilience. Such examples are foundational to a future in which architecture does not merely resist the environment but interprets it. Formal Freedom Meets Functional Responsiveness Guangzhou Opera House | © Scarbor Siu via Unsplash Beyond embedded intelligence, composites also expand formal expression. Their moldability, especially with parametric design and digital fabrication, allows for envelopes that curve, fold, and morph in unattainable ways with conventional rigid materials. The Guangzhou Opera House, designed by Zaha Hadid Architects, is a defining example. Advanced composite assemblies that merged structural demands with formal ambition enabled its seamless curvatures and sharp transitions. These systems supported high-precision details and complex geometries while reducing material weight and installation complexity. This freedom extends to smaller-scale yet equally ambitious projects. At the Tilburg School for VAVO, translucent composite panels embedded with knitted textiles reference local craft while offering thermal performance and design cohesion. Such examples show that intelligence in architecture includes cultural sensitivity as well as technical adaptability. Toward Circular and Regenerative Envelopes The sustainability potential of composites is often overlooked. While early generations relied heavily on fossil-derived materials, newer systems use bio-based resins, natural fibers like flax and basalt, and recyclable matrices that fit into circular design models. Composite panels can now be designed for disassembly, repurposing, or reintegration into new construction, minimizing waste and conserving embodied energy. The Pasarela de Almuñécar in Spain exemplifies this ethos. As the world’s longest carbon-fiber walkway, it replaced heavier materials and extended structural lifespan while reducing maintenance. The project signals how composites can fulfill both technical and ecological ambitions. Efforts to embed digital tracking into panels, such as RFID tags, also support long-term monitoring and facilitate reuse planning. This vision aligns with emerging concepts like material passports, which will play a critical role in lifecycle accountability. Pasarela de Almuñécar in Spain | © Luis Garcia, CC by 3.0 Overcoming Barriers to Adoption Despite the clear advantages, composite adoption in architecture still faces notable hurdles. First is the challenge of integration with legacy materials such as concrete, stone, or steel. Connection detailing requires careful coordination to ensure structural continuity and thermal performance. Second is the perception of cost. While composites may require a higher upfront investment, their lower maintenance demands, improved energy performance, and reduced structural requirements often result in favorable long-term economics. Finally, regulatory frameworks continue to evolve. Building codes have been slow to reflect the unique properties of composites, although this is changing as standardization increases and successful pilot projects proliferate. A Vision for the Future: Architecture as Adaptive Intelligence Composites are not merely substitutes for traditional materials. They represent a paradigm shift in how we understand performance, integration, and the role of material in space-making. As architecture becomes increasingly data-driven, climate-responsive, and energy-conscious, the intelligent envelope will become the norm rather than the exception. Composites make this future feasible by offering structural capability, aesthetic freedom, environmental stewardship, and embedded intelligence within a single engineered solution. From high-speed rail terminals to cultural landmarks, these materials are shaping a new kind of architecture that listens, learns, and evolves. It is no longer sufficient for architecture to stand still. The next generation of buildings must adapt, interact, and perform. Composites make that future tangible. Learn More Explore how composite materials are redefining the building envelope in the construction sector and beyond: Visit Composites.Archi by ArchEyes Team Leave a comment

They're planning to print a kayak with it.

Version 1.0.0 By Robert Jan van Pelt (Park Books, 2025) The largest artifact in the touring exhibition Auschwitz. Not Long Ago. Not Far Away., currently on display at the ROM in Toronto, is a wooden barracks building. It’s from the Auschwitz-Monowitz camp, a satellite to Auschwitz created to provide slave labour to the IG Farben corporation for the construction of a synthetic rubber factory.  The discovery of a sister building, back in 2012, led exhibition chief curator and architectural historian Robert Jan van Pelt, University Professor at the Waterloo School of Architecture, on a research journey to write a comprehensive history of the barracks—temporary buildings that have not only housed prisoners, but also provided shelter for military servicemen and women, refugees, and natural disaster survivors. “Many people have experienced, for shorter or longer time periods, life in a barrack, and for all of them it represented life on the edge, for better or worse,” writes Van Pelt. Worm’s eye axonometric of Renkioi Hospital Barrack, a prefabricated hospital designed by Ismabard Kingdom Brunel for a site in Turkey, 1857. Van Pelt’s book criss-crosses with ease through architectural history, military history, and the history of medicine—all of which played crucial roles in the evolving development of this seemingly simple building type. The book is arranged in a dozen episodes, with the barrack at the centre of each, serving as an anchor point for unfolding the rich intellectual and historical context shaping the way these structures were developed and deployed. The book is richly illustrated with archival materials—a feat in itself, given that the documentation for temporary buildings, particularly before 1900, is scarce. These drawings, photos, and paintings are supplemented with 20 worm’s eye views of key buildings, carefully composed by a team of Waterloo architecture school students and alumni.  Thomas Thomaszoon, View of the headquarters of the Spanish in the Huis tea Kleef during the siege of Haarlem, 1572-73. Collection of Noord-Hollands Archief, Haarlem; courtesy Robert Jan van Pelt Like many vernacular buildings, temporary structures larger than a tent, designed to house soldiers in the field, have existed at least since Ancient Rome. One of the first visual accounts of barracks came centuries later, in the winter of 1572, when the Spanish laid siege to the Dutch city of Haarlem, and cartographer Thomas Thomaszoon sketched the position of dozens of Spain’s wood-and-straw structures outside the city. The siege was successful, but only a few years later, the Dutch Republic gained the upper hand. As part of the creation of a standing army, they began to develop more precise instructions for the layout of camps, including the construction of temporary barracks. Antoine-François Omet des Foucaux, Barrack constructed in Hendaye, France, 1793. From Jean-Charles Krafft, Plans, coupes et élévations de diverses productions de l’art de la charpente, 1805. Collection of Bilbliothèque Nationale de France, Paris. Courtesy Robert Jan van Pelt The Napoleonic army made use of barracks in both military camps and training camps; by the mid-1800s, the construction of various barrack types was detailed in field construction manuals issued to officers in many European armies. During the Crimean War (1853-56), over 3,500 prefabricated barracks were manufactured in a Gloucester factory, as a solution to the appalling conditions at the front. But when the structures arrived at port, British forces were not able to unload and erect them—the materials for a single building weighed more than two tons, and each would require 60 horses (or 150 men) to transport to camp on the muddy roads.  The US (Union) Army’s Lincoln Hospital, Washington, DC, 1865. Collection of Library of Congress, Washington, DC. Courtesy Robert Jan van Pelt Prefabrication was also used, with somewhat more success, towards the end of the conflict to erect field hospitals designed by British engineer Isambard Kingdom Brunel with a priority on cross-ventilation to limit the spread of disease. Low mortality rates from similar structures led to a continued preference for “barrack hospitals” based on groupings of low-slung, well-ventilated pavilions, rather than conceived as single grand structures. The model was further refined with the addition of primitive underfloor heating and ridge ventilation by former surgeon William A. Hammond for the Union Army during the American Civil War (1861-65).  Barrack hospitals were constructed for civilian use, as well. Following the conclusion of the Franco-Prussian war (1870-71), such designs were built to house patients with infectious diseases in Berlin and proposed as a means to bring professional medical care to Germany’s rural areas. A barracks-inspired hospital was built in Saint Petersburg, Russia, in 1889, and continues to be operational.  If the barrack as an accommodation for the sick is a progressive tale, the 19th-century history of the barrack is equally checkered by the building type’s use for prisoner accommodation, including in the penal colonies of Australia and French Guiana. In North America, barracks were used in an internment camp for Native American Dakotas, and Civil War-era Union barracks at Camp Douglas were used to house Confederate prisoners. The oldest preserved barrack in the world may be in Canada, at Grosse Isle national park. Here, barrack-style quarantine sheds were used to detain thousands of Irish immigrant families during the typhoid fever epidemic of 1846-47, and their damp, fetid conditions contributed to many deaths—an episode Van Pelt describes as a “blot on the national consciousness of Canada.” A single Doecker Hut contains an operation room, pharmacy and hospital management office. The prefabricated, portable hospitals were developed in 1885, and used around the world, including in the First World War. In America, they were marketed for managing epidemics in the wake of the 1892 typhus fever outbreak in New York. Courtesy Berlin State Library and Robert Jan van Pelt   At the turn of the 19th century, the prefabricated portable barrack came to the fore with the manufacturing of the Doecker barracks, by Christoph & Unmack, a firm based in Copenhagen and Germany. Developed by a former military officer-turned-tentmaker, the technically sophisticated model used large rectangular frames that could be clipped together, and covered with “felt-cardboard”—dense felt pressed onto canvas and impregnated with linseed oil. The self-supporting structures proved easy to set up, dismount, and transport, making them suitable for both military applications—and, with little modification, for humanitarian aid. The Red Cross deployed Doecker barracks for use as field hospitals in Manchuria and Yokohama during the Russo-Japanese War (1904-05).  The Barrack, 1572-1914 wraps up in in the early 20th century, but with the note that in the ensuing decades until 1945, millions of barracks were produced by many of the world’s major nations—and that most of these were erected in barbed-wire-ringed compounds. “This is the period in which tens if not hundreds of millions of people, many of whom were civilians, were forced to live in barracks, as refugees, as expellees, as civilian internees, as forced laborers, as prisoners or war, as concentration camp prisoners, and as people made homeless by the destruction wrought by war,” writes Van Pelt. Up until 1914, he notes, this building type largely carried a sense of achievement—an image that would change sharply with the Age of the Camps. But although a WWII barrack was responsible for instigating Van Pelt’s initial investigation, that time period will need to await a second volume on this simple building type with a rich, complex, and complicated history.   As appeared in the June 2025 issue of Canadian Architect magazine  The post Book Review: The Barrack, 1572-1914—Chapters in the History of Emergency Architecture appeared first on Canadian Architect.

Standard modular construction was given a softened appearance with the addition of residential wood truss roofs and the introduction of shorter modules in select locations to create courtyards. Photo by doublespace photography PROJECT Durham Modular Transitional Housing, Beaverton, Ontario ARCHITECT Montgomery Sisam Architects Inc. In cities, homelessness can be painfully visible, in the form of encampments or people sleeping rough. But in rural areas, people experiencing homelessness are often hidden away. It’s this largely invisible but clearly present need that led to the construction of Beaverton Heights, a 47-unit transitional housing residence about 100 kilometres from Toronto that serves the northern part of the Regional Municipality of Durham. The region had run a pilot project for transitional housing in Durham during the Covid pandemic, out of a summer camp property—so when provincial and federal funding became available for modular, rapidly delivered transitional housing, they were quick to apply. Montgomery Sisam Architects is no stranger to modular supportive housing, or to the site, for that matter. 15 years ago, they designed Lakeview Manor, a 200-bed long-term care facility for the region, on an adjoining parcel of land. At the time that they took on Beaverton Heights, they had completed two modular supportive housing projects for the City of Toronto. (They have since completed four more.)  The initial Toronto projects were done on a massively compressed timeline—a mere eight months from design to the move-in date for the first, and nine months for the second. “So we knew that’s as tight as you can crunch it—and that’s with all the stars aligned,” says Montgomery Sisam principal Daniel Ling.  As transitional housing, the Beaverton facility is designed to help residents overcome their barriers to housing. To achieve this, the program not only includes residential units, but communal spaces, including a double-height dining room and lounge that occupy the western half of the project. This part of the complex can also be used independently, such as for community activities and health supports. To create the needed volume, Montgomery Sisam decided to prefabricate the community structure in steel: the entire west half of the project was constructed and assembled in a factory to ensure that it would fit together as intended, then disassembled and reassembled on site. The double-height community space includes a reading room, terrace, administrative areas, and communal dining room served by a full commercial kitchen. The building can also be used for community-wide functions, such as medical clinics. A cluster of columns marks the area where the dining area’s eight steel modular units join together. Photo by Tom Ridout For both the steel community structure and its wood residential counterpart, the prefabrication process was extensive, and included the in-factory installation of plumbing, electrical and mechanical systems, interior and exterior finishes, and even furnishings in each module. “Basically, just remove the plastic from the mattress and take the microwave from the box that’s already in the unit,” says Jacek Sochacki, manager of facilities design, construction, and asset management at the works department of the Regional Municipality of Durham. Within the building, the most extensive on-site work was in the hallways, where the modules met: building systems needed to connect up, and flooring and finishes needed to be completed over the joints after the modules were installed. One of the most surprising aspects of the project is how un-modular it looks. Montgomery Sisam’s previous experience with modular construction allowed them to find leeway in the process—small tweaks that would change the look of the project, without affecting the construction cost. The long site allowed the architects to use a single module as a glazed hallway, connecting the two buildings, and creating generous courtyards on its two sides. In two other areas, shorter modules are specified to transform the massing of the building. The resulting cut-outs serve as an entry forecourt and as a dining terrace. Instead of flat roofs, the team used residential trusses—“the same wood trusses you would see in subdivisions,” says Ling—to create sloped roof forms. From the outside, the windows of the residential units are slightly recessed behind a frame of wood cladding, adding further dimension to the façade.  Photo by doublespace photography Since it was a design-build process, all of these decisions were vetted through the builder for their cost effectiveness. “It wasn’t hard to convince them, we’re going to use some shorter modules—you are going to build less there,” recalls Ling. “These are things that actually don’t cost a lot of money.” The resulting massing is intentionally lower towards the front of the property, where the community space faces residential neighbours, and doubles to four storeys towards the back. As you approach the project, the courtyards and cut-outs give it the appearance of smaller discrete masses, rather than a single volume. Topping the project is the region’s largest solar panel array, which provides 35 to 40 percent of the all-electric building’s energy needs. Modular construction aided in airtightness and performance—in its first months of operation, it delivered an EUI of 102 kWh/m2/year.   Balancing between independence and community was an important principle for the program, and for the design. To this end, each studio is designed to function as a self-sufficient dwelling, with its own kitchen, full washroom, and heat pump with independent temperature control. Small spatial nudges—like daylight at both ends of corridors, seating nooks with built-in benches throughout the project, and generous common rooms—aim to coax residents outside of their units. The property is bracketed by the dining area at the front, and an outdoor basketball court at the rear. A long storage shed holds some of the facility’s mechanical equipment along with bikes—an easy way to get into town for residents who may not have cars.  Located between the residences and the community building, a semi-private courtyard offers a quiet place for clients to rest or socialize with others. Photo by doublespace photography The building looks so good that, had the finishes be chosen for luxury rather than durability, it could easily pass as a family resort. But is that too nice? Often, government-funded buildings—especially for a stigmatized program such as transitional housing—come under criticism if they appear to be too fancy.  I put this to Sochacki, who replies: “There’s this misnomer that if the building looks good or unique, it costs a lot of money. I think we proved that it doesn’t.” Apart from a wood surround for the fireplace, the components of the building are utilitarian and basic, he says. “It’s just like: how do you make the most out of common materials? It costs us exactly the same, but we’re doing things that are actually nice.” Screenshot That niceness is not just a perk, but essential to the core purpose of helping people experiencing homelessness to make their way back into society. “Making it nice is important,” says Sochacki. “Nice lighting, nice windows, nice places to sit, nice spaces that people enjoy being at—because that’s what’s going to make the difference.”  “If you build a place that people just want to spend all their time in their room and they don’t come out, that’s not going to help them with transitioning back to a sustainable, permanent housing lifestyle,” he adds. “You’ve got to create a place where they feel welcome and that they want to spend time in—they want to meet other people and they want to get the support, because there’s a place and space for it, and it’s successful for them to get the support.” A terrace adjoins the reading lounge and dining area, inviting outdoor barbecues and gatherings in warm weather. The cut-out was created by using a shorter module in this section of the building, minimizing the impact to construction costs and logistics. Photo by Tom Ridout CLIENT Regional Municipality of Durham | ARCHITECT TEAM Daniel Ling (FRAIC), Enda McDonagh, Kevin Hutchinson, Sonja Storey-Fleming, Mateusz Nowacki, Zheng Li, Grace Chang, Jake Pauls Wolf, Mustafa Munawar, Paul Kurti, William Tink, Victoria Ngai, Kavitha Jayakrishnan, Max Veneracion, Megan Lowes | STRUCTURAL/MECHANICAL/ELECTRICAL Design Works Engineering | LANDSCAPE Baker Turner | INTERIORS Montgomery Sisam Architects | CONTRACTOR NRB Modular Solutions | CIVIL Design Works Engineering | CODE Vortex Fire | FOOD SERVICES Kaizen Foodservice Planning & Design | ENERGY MODELlING Design Work Engineering | SPECIFICATIONS DGS Consulting Services | AREA 3,550 m2 | COMPLETION October 2024 ENERGY USE INTENSITY (operational) 101.98 kWh/m2/year   As appeared in the June 2025 issue of Canadian Architect magazine  The post Invisible Need, Visible Care: Beaverton Heights, Beaverton, Ontario appeared first on Canadian Architect.

How Deepfakes Are Created Generative AI models enable the creation of highly realistic fake media. Most deepfakes today are produced by training deep neural networks on real images, video or audio of a target person. The two predominant AI architectures are generative adversarial networks (GANs) and autoencoders. A GAN consists of a generator network that produces synthetic images and a discriminator network that tries to distinguish fakes from real data. Through iterative training, the generator learns to produce outputs that increasingly fool the discriminator¹. Autoencoder-based tools similarly learn to encode a target face and then decode it onto a source video. In practice, deepfake creators use accessible software: open-source tools like DeepFaceLab and FaceSwap dominate video face-swapping (one estimate suggests DeepFaceLab was used for over 95% of known deepfake videos)². Voice-cloning tools (often built on similar AI principles) can mimic a person’s speech from minutes of audio. Commercial platforms like Synthesia allow text-to-video avatars (turning typed scripts into lifelike “spokespeople”), which have already been misused in disinformation campaigns³. Even mobile apps (e.g. FaceApp, Zao) let users do basic face swaps in minutes⁴. In short, advances in GANs and related models make deepfakes cheaper and easier to generate than ever. Diagram of a generative adversarial network (GAN): A generator network creates fake images from random input and a discriminator network distinguishes fakes from real examples. Over time the generator improves until its outputs “fool” the discriminator⁵ During creation, a deepfake algorithm is typically trained on a large dataset of real images or audio from the target. The more varied and high-quality the training data, the more realistic the deepfake. The output often then undergoes post-processing (color adjustments, lip-syncing refinements) to enhance believability¹. Technical defenses focus on two fronts: detection and authentication. Detection uses AI models to spot inconsistencies (blinking irregularities, audio artifacts or metadata mismatches) that betray a synthetic origin⁵. Authentication embeds markers before dissemination – for example, invisible watermarks or cryptographically signed metadata indicating authenticity⁶. The EU AI Act will soon mandate that major AI content providers embed machine-readable “watermark” signals in synthetic media⁷. However, as GAO notes, detection is an arms race – even a marked deepfake can sometimes evade notice – and labels alone don’t stop false narratives from spreading⁸⁹. Deepfakes in Recent Elections: Examples Deepfakes and AI-generated imagery already have made headlines in election cycles around the world. In the 2024 U.S. primary season, a digitally-altered audio robocall mimicked President Biden’s voice urging Democrats not to vote in the New Hampshire primary. The caller (“Susan Anderson”) was later fined $6 million by the FCC and indicted under existing telemarketing laws¹⁰¹¹. (Importantly, FCC rules on robocalls applied regardless of AI: the perpetrator could have used a voice actor or recording instead.) Also in 2024, former President Trump posted on social media a collage implying that pop singer Taylor Swift endorsed his campaign, using AI-generated images of Swift in “Swifties for Trump” shirts¹². The posts sparked media uproar, though analysts noted the same effect could have been achieved without AI (e.g., by photoshopping text on real images)¹². Similarly, Elon Musk’s X platform carried AI-generated clips, including a parody “Ad” depicting Vice-President Harris’s voice via an AI clone¹³. Beyond the U.S., deepfake-like content has appeared globally. In Indonesia’s 2024 presidential election, a video surfaced on social media in which a convincingly generated image of the late President Suharto appeared to endorse the candidate of the Golkar Party. Days later, the endorsed candidate (who is Suharto’s son-in-law) won the presidency¹⁴. In Bangladesh, a viral deepfake video superimposed the face of opposition leader Rumeen Farhana onto a bikini-clad body – an incendiary fabrication designed to discredit her in the conservative Muslim-majority society¹⁵. Moldova’s pro-Western President Maia Sandu has been repeatedly targeted by AI-driven disinformation; one deepfake video falsely showed her resigning and endorsing a Russian-friendly party, apparently to sow distrust in the electoral process¹⁶. Even in Taiwan (amidst tensions with China), a TikTok clip circulated that synthetically portrayed a U.S. politician making foreign-policy statements – stoking confusion ahead of Taiwanese elections¹⁷. In Slovakia’s recent campaign, AI-generated audio mimicking the liberal party leader suggested he plotted vote-rigging and beer-price hikes – instantly spreading on social media just days before the election¹⁸. These examples show that deepfakes have touched diverse polities (from Bangladesh and Indonesia to Moldova, Slovakia, India and beyond), often aiming to undermine candidates or confuse voters¹⁵¹⁸. Notably, many of the most viral “deepfakes” in 2024 were actually circulated as obvious memes or claims, rather than subtle deceptions. Experts observed that outright undetectable AI deepfakes were relatively rare; more common were AI-generated memes plainly shared by partisans, or cheaply doctored “cheapfakes” made with basic editing tools¹³¹⁹. For instance, social media was awash with memes of Kamala Harris in Soviet garb or of Black Americans holding Trump signs¹³, but these were typically used satirically, not meant to be secretly believed. Nonetheless, even unsophisticated fakes can sway opinion: a U.S. study found that false presidential ads (not necessarily AI-made) did change voter attitudes in swing states. In sum, deepfakes are a real and growing phenomenon in election campaigns²⁰²¹ worldwide – a trend taken seriously by voters and regulators alike. U.S. Legal Framework and Accountability In the U.S., deepfake creators and distributors of election misinformation face a patchwork of tools, but no single comprehensive federal “deepfake law.” Existing laws relevant to disinformation include statutes against impersonating government officials, electioneering (such as the Bipartisan Campaign Reform Act, which requires disclaimers on political ads), and targeted statutes like criminal electioneering communications. In some cases ordinary laws have been stretched: the NH robocall used the Telephone Consumer Protection Act and mail/telemarketing fraud provisions, resulting in the $6M fine and a criminal charge. Similarly, voice impostors can potentially violate laws against “false advertising” or “unlawful corporate communications.” However, these laws were enacted before AI, and litigators have warned they often do not fit neatly. For example, deceptive deepfake claims not tied to a specific victim do not easily fit into defamation or privacy torts. Voter intimidation laws (prohibiting threats or coercion) also leave a gap for non-threatening falsehoods about voting logistics or endorsements. Recognizing these gaps, some courts and agencies are invoking other theories. The U.S. Department of Justice has recently charged individuals under broad fraud statutes (e.g. for a plot to impersonate an aide to swing votes in 2020), and state attorneys general have considered deepfake misinformation as interference with voting rights. Notably, the Federal Election Commission (FEC) is preparing to enforce new rules: in April 2024 it issued an advisory opinion limiting “non-candidate electioneering communications” that use falsified media, effectively requiring that political ads use only real images of the candidate. If finalized, that would make it unlawful for campaigns to pay for ads depicting a candidate saying things they never did. Similarly, the Federal Trade Commission (FTC) and Department of Justice (DOJ) have signaled that purely commercial deepfakes could violate consumer protection or election laws (for example, liability for mass false impersonation or for foreign-funded electioneering). U.S. Legislation and Proposals Federal lawmakers have proposed new statutes. The DEEPFAKES Accountability Act (H.R.5586 in the 118th Congress) would, among other things, impose a disclosure requirement: political ads featuring a manipulated media likeness would need clear disclaimers identifying the content as synthetic. It also increases penalties for producing false election videos or audio intended to influence the vote. While not yet enacted, supporters argue it would provide a uniform rule for all federal and state campaigns. The Brennan Center supports transparency requirements over outright bans, suggesting laws should narrowly target deceptive deepfakes in paid ads or certain categories (e.g. false claims about time/place/manner of voting) while carving out parody and news coverage. At the state level, over 20 states have passed deepfake laws specifically for elections. For example, Florida and California forbid distributing falsified audio/visual media of candidates with intent to deceive voters (though Florida’s law exempts parody). Some states (like Texas) define “deepfake” in statutes and allow candidates to sue or revoke candidacies of violators. These measures have had mixed success: courts have struck down overly broad provisions that acted as prior restraints (e.g. Minnesota’s 2023 law was challenged for threatening injunctions against anyone “reasonably believed” to violate it). Critically, these state laws raise First Amendment issues: political speech is highly protected, so any restriction must be tightly tailored. Already, Texas and Virginia statutes are under legal review, and Elon Musk’s company has sued under California’s law (which requires platforms to label or block deepfakes) as unconstitutional. In practice, most lawsuits have so far centered on defamation or intellectual property (for instance, a celebrity suing over a botched celebrity-deepfake video), rather than election-focused statutes. Policy Recommendations: Balancing Integrity and Speech Given the rapidly evolving technology, experts recommend a multi-pronged approach. Most stress transparency and disclosure as core principles. For example, the Brennan Center urges requiring any political communication that uses AI-synthesized images or voice to include a clear label. This could be a digital watermark or a visible disclaimer. Transparency has two advantages: it forces campaigns and platforms to “own” the use of AI, and it alerts audiences to treat the content with skepticism. Outright bans on all deepfakes would likely violate free speech, but targeted bans on specific harms (e.g. automated phone calls impersonating voters, or videos claiming false polling information) may be defensible. Indeed, Florida already penalizes misuse of recordings in voter suppression. Another recommendation is limited liability: tying penalties to demonstrable intent to mislead, not to the mere act of content creation. Both U.S. federal proposals and EU law generally condition fines on the “appearance of fraud” or deception. Technical solutions can complement laws. Watermarking original media (as encouraged by the EU AI Act) could deter the reuse of authentic images in doctored fakes. Open tools for deepfake detection – some supported by government research grants – should be deployed by fact-checkers and social platforms. Making detection datasets publicly available (e.g. the MIT OpenDATATEST) helps improve AI models to spot fakes. International cooperation is also urged: cross-border agreements on information-sharing could help trace and halt disinformation campaigns. The G7 and APEC have all recently committed to fighting election interference via AI, which may lead to joint norms or rapid response teams. Ultimately, many analysts believe the strongest “cure” is a well-informed public: education campaigns to teach voters to question sensational media, and a robust independent press to debunk falsehoods swiftly. While the law can penalize the worst offenders, awareness and resilience in the electorate are crucial buffers against influence operations. As Georgia Tech’s Sean Parker quipped in 2019, “the real question is not if deepfakes will influence elections, but who will be empowered by the first effective one.” Thus policies should aim to deter malicious use without unduly chilling innovation or satire. References: https://www.security.org/resources/deepfake-statistics/. https://www.wired.com/story/synthesia-ai-deepfakes-it-control-riparbelli/. https://www.gao.gov/products/gao-24-107292. https://technologyquotient.freshfields.com/post/102jb19/eu-ai-act-unpacked-8-new-rules-on-deepfakes. https://knightcolumbia.org/blog/we-looked-at-78-election-deepfakes-political-misinformation-is-not-an-ai-problem. https://www.npr.org/2024/12/21/nx-s1-5220301/deepfakes-memes-artificial-intelligence-elections. https://apnews.com/article/artificial-intelligence-elections-disinformation-chatgpt-bc283e7426402f0b4baa7df280a4c3fd. https://www.lawfaremedia.org/article/new-and-old-tools-to-tackle-deepfakes-and-election-lies-in-2024. https://www.brennancenter.org/our-work/research-reports/regulating-ai-deepfakes-and-synthetic-media-political-arena. https://firstamendment.mtsu.edu/article/political-deepfakes-and-elections/. https://www.ncsl.org/technology-and-communication/deceptive-audio-or-visual-media-deepfakes-2024-legislation. https://law.unh.edu/sites/default/files/media/2022/06/nagumotu_pp113-157.pdf. https://dfrlab.org/2024/10/02/brazil-election-ai-research/. https://dfrlab.org/2024/11/26/brazil-election-ai-deepfakes/. https://freedomhouse.org/article/eu-digital-services-act-win-transparency. The post The Legal Accountability of AI-Generated Deepfakes in Election Misinformation appeared first on MarkTechPost.

View of the south façade before construction of a new residential project that now conceals Le Christin from Boulevard René Lévesque. PROJECT Le Christin, Montreal, Quebec ARCHITECT Atelier Big City PHOTOS James Brittain   PROJECT Les Studios du PAS, Montreal, Quebec ARCHITECT L. McComber in collaboration with Inform  PHOTOS Ulysse Lemerise   Nighttime, April 15, 2025. A thousand volunteers are gathering in Montreal, part of a province-wide effort to try and put numbers on a growing phenomenon in cities like Vancouver, Calgary, Toronto, and many others. The volunteers are getting ready to walk around targeted areas in downtown Montreal and around certain subway stations. Temporary shelters are also visited. First conducted in the spring of 2018, this survey showed that 3,149 people were in a vulnerable situation at the time. Four years later, a similar effort revealed that Montreal’s homeless population had risen to 4,690 people—and that there were some 10,000 people experiencing homelessness in the whole of the province. The 2025 numbers are expected to be significantly higher. For the organizers, this one-night snapshot of the situation is “neither perfect nor complete.” However, for nonprofit organizations and governmental bodies eager to prevent a vulnerable population from ending up on the streets, the informal census does provide highly valuable information.  Two recent initiatives—very different from one another—offer inspiring answers. The most recent one, Le Christin, was designed by Atelier Big City (led by architects Anne Cormier, Randy Cohen, and Howard Davies) and inaugurated in 2024. Studios du PAS, on the other hand, was designed by Montreal firm L. McComber, and welcomed its first tenants in 2022. Both projects involved long-standing charities: the 148-year-old Accueil Bonneau, in the case of Le Christin, and the 136-year-old Mission Old Brewery for Studios du PAS. Le Christin was spearheaded, and mostly financed, by the Société d’habitation et de développement de Montréal (SHDM), a non-profit, para-municipal corporation created in 1988. Studios du PAS was first selected by the City of Montreal to be built thanks to the Rapid Housing Initiative (RHI) program run by the Canada Mortgage and Housing Corporation (CMHC). Le Christin also received a financial contribution from the CMHC towards the end of the process. Boldly coloured blind walls signal the presence of Le Christin in the center of a densely occupied city block, with entrance to the left along Sanguinet Stree. Le Christin Although sited in a very central location, near the buzzing St. Catherine and St. Denis streets, Le Christin is hard to find. And even when one suddenly spots two seven-storey-high walls, coloured lemon-zest yellow and mango orange, it’s difficult to figure out what they are about. A stroll along the tiny Christin Street finally reveals the front façade of this new facility, now home to some of Montreal’s most vulnerable citizens.  View of Le Christin’s modulated front façade. Galvanized steel panels at ground level add a soft touch while protecting the building from potential damage caused by snow plows. Le Christin is unique for a number of reasons. First among them is its highly unusual location—at the centre of a dense city block otherwise occupied by university buildings, office towers, and condo blocks. Until a few years ago, the site was home to the four-storey Appartements Le Riga. The Art Deco-style building had been built in 1914 by developer-architect Joseph-Arthur Godin, who was a pioneer in his own right: he was one of the first in Montreal to experiment with reinforced concrete structures, a novelty in the city at the time. A century later, Le Riga, by then the property of SHDM, was in serious need of repair. Plans had already been drafted for a complete renovation of the building when a thorough investigation revealed major structural problems. Tenants had to leave on short notice and were temporarily relocated; the building was eventually demolished in 2019. By that time, Atelier Big City had been mandated to design a contemporary building that would replace Le Riga and provide a “place of one’s own” to close to 150 tenants, formerly homeless or at risk of becoming so.    Le Christin – Site Plan and Ground Floor Plan The entire operation sparked controversy, particularly as Le Christin started to rise, showing no sign of nostalgia. The architects’ daring approach was difficult to fathom—particularly for those who believe social housing should keep a low profile.  The program, originally meant for a clientele of single men, gradually evolved to include women. In order to reflect societal trends, the architects were asked to design 24 slightly larger units located in the building’s east wing, separated from the rest of the units by secured doors. Thus, Le Christin is able to accommodate homeless couples or close friends, as well as students and immigrants in need. A tenants-only courtyard is inserted in the south façade. In order to provide the maximum number of units requested by SHDM, each of the 90 studios was reduced to 230 square feet—an adjustment from Atelier Big City’s initial, slightly more generous plans. In a clever move, an L-shaped kitchen hugs the corner of each unit, pushing out against the exterior wall. As a result, the window openings recede from the façade, creating a sense of intimacy for the tenants, who enjoy contact with the exterior through large windows protected by quiet Juliet balconies. Far from damaging the initial design, the added constraint of tightened units allowed the architects to modulate the building’s façades, creating an even stronger statement. On the unit levels, corridors include large openings along the south façade. Each floor is colour-coded to enliven the space; overhead, perforated metal plates conceal the mechanical systems. An extra floor was gained thanks to the decision to expose the various plumbing, electrical, and ventilation systems. Well-lit meeting rooms and common areas are found near Le Christin’s front entrance, along with offices for personnel, who are present on the premises 24 hours a day. Apart from a small terrace above the entrance, the main exterior space is a yard which literally cuts into the building’s back façade. This has a huge impact on the interiors at all levels: corridors are generously lit with sunlight, a concept market developers would be well advised to imitate. The adjacent exit stairs are also notable, with their careful detailing and the presence of glazed openings.  The fire stairs, which open onto the exterior yard at ground level, feature glazing that allows for ample natural light. Le Christin has achieved the lofty goal articulated by SHDM’s former director, architect Nancy Schoiry: “With this project, we wanted to innovate and demonstrate that it was possible to provide quality housing for those at risk of homelessness.” The low-slung Studios du PAS aligns with neighbourhood two-storey buildings. Studios du PAS In sharp contrast with Le Christin’s surroundings, the impression one gets approaching Studios du PAS, 14 kilometres east of downtown Montreal, is that of a small town. In this mostly low-scale neighbourhood, L. McComber architects adopted a respectful, subdued approach—blending in, rather than standing out.  The project uses a pared-down palette of terracotta tile, wood, and galvanized steel. The footbridge links the upper level to shared exterior spaces. The financing for this small building, planned for individuals aged 55 or older experiencing or at risk of homelessness, was tied to a highly demanding schedule. The project had to be designed, built, and occupied within 18 months: an “almost impossible” challenge, according to principal architect Laurent McComber. From the very start, prefabrication was favoured over more traditional construction methods. And even though substantial work had to be done on-site—including the installation of the roof, electrical and mechanical systems, as well as exterior and interior finishes—the partially prefabricated components did contribute to keeping costs under control and meeting the 18-month design-to-delivery deadline. Les Studios du PAS The building was divided into 20 identical modules, each fourteen feet wide—the maximum width allowable on the road. Half the modules were installed at ground level. One of these, positioned nearest the street entrance, serves as a community room directly connected to a small office for the use of a social worker, allowing staff to follow up regularly with tenants. Flooded with natural light, the double-height lobby provides a friendly and inclusive welcome. The ground level studios were designed so they could be adapted to accommodate accessibility needs. Some of the ground floor units were adapted to meet the needs of those with a physical disability; the other units were designed to be easily adaptable if needed. All studio apartments, slightly under 300 square feet, include a full bathroom, a minimal kitchen, and sizeable storage space hidden behind cabinet doors. Most of the apartments include a small exterior alcove, which provides an intimate outdoor space while creating a subtle rhythm along the front façade. Inside the studio units, storage cupboards for clothes and belongings were added as an extension of the kitchen wall. Conscious of the tradition of brick residential buildings in Montreal, yet wanting to explore alternate materials, the architects selected an earth-toned terracotta tile from Germany. The 299mm x 1500mm tiles are clipped to the façade, allowing for faster installation and easier maintenance. All units enjoy triple-glazed windows and particularly well insulated walls. A high-performance heat pump was installed to lower energy demand—and costs—for heating and cooling needs. Wood siding was used to soften the upper-level balconies, which provide protected outdoor spaces for residents.   Pride and Dignity Le Christin and Les Studios du PAS have little in common—except, of course, their program. Architecturally speaking, each represents an interesting solution to the problem at hand. While Le Christin is a high-spirited, flamboyant statement, Studios du PAS is to be praised for its respectful attitude, and for the architects’ relentless search for interesting alternatives to traditional construction norms. Atelier Big City is one of few firms in Canada that has the guts—and the talent—to play with bold colours. Decades of experimentation (not just with public buildings, but also within their own homes), led up to Le Christin, which is perhaps their strongest building to date. Their judicious choices of colour, brick type, and materials transmit a message of pride and dignity. Both projects demonstrate enormous respect and generosity to their residents: they provide architecture that treats them not as an underclass, but as regular people, who need the stability of dignified housing to start rebuilding their lives. Odile Hénault is a contributing editor to Canadian Architect.   Le Christin CLIENT Société d’habitation et de développement de Montréal (SHDM) | ARCHITECT TEAM Anne Cormier, Randy Cohen, Howard Davies, Fannie Yockell, Gabriel Tessier, Sébastien St-Laurent, Lisa Vo | STRUCTURAL DPHV | MECHANICAL/ELECTRICAL BPA | CIVIL Genexco | LIGHTING CS Design | AREA 4,115 m2 | Construction BUDGET $18.9 M | COMPLETION November 2023   Les Studios du PAS  CLIENT PAS de la rue | ARCHITECT TEAM L. McComber—Laurent McComber, Olivier Lord, Jérôme Lemieux, Josianne Ouellet-Daudelin, Laurent McComber. Inform—David Grenier, Élisabeth Provost, Amélie Tremblay, David Grenier | PROJECT MANAGEMENT Groupe CDH | STRUCTURAL Douglas Consultants | MECHANICAL/ELECTRICAL Martin Roy & associés | CIVIL Gravitaire | CONTRACTOR Gestion Étoc | AREA 1,035 m2 | BUDGET $3.4 M | COMPLETION September 2022 As appeared in the June 2025 issue of Canadian Architect magazine The post A Place to Call Home: Le Christin and Les Studios du PAS, Montreal, Quebec appeared first on Canadian Architect.