Smart Design's Light Collaboration with Gantri is a Commendable Feat in 3D Printing

The Analog lighting collection, a collaboration between industrial designer Chris Granneberg and sustainable lighting brand Gantri, showcases a playful and functional approach to illumination. The collection, which includes task lights, floor lights, and wall lights, draws inspiration from Granneberg's daughter's LEGO collection and the IKEA FREKVENS, aiming to infuse joy and a childlike spirit into everyday objects. The core design element of the Analog collection is a compact, cubic light module that rotates 360 degrees, allowing for versatile light direction. Granneberg conceptualized these lights as being 3D printed, a vision brought to fruition by Gantri, which specializes in additive manufacturing for its lighting products. This manufacturing method allows for the creation of intricate and precise forms, contributing to the collection's distinct aesthetic and functionality. The lights are characterized by their simple, compact shapes and vibrant colorways, designed to evoke a sense of happiness and unencumbered creativity. The collection challenges the traditional seriousness often associated with task lighting, offering a design that is both practical and engaging. Granneberg's emphasis on color as a means to introduce joy into people's lives is a central theme, reflected in the vibrant hues chosen for the Analog lights. The design philosophy aligns with the idea that playful elements can enhance functionality and user experience, rather than detracting from it. The lights are designed to be accessible and adaptable, fitting into various interior settings while adding a unique, modern touch. Gantri's commitment to sustainability is evident in their use of 3D printing technology, which can reduce waste and allow for on-demand production. The collaboration with Granneberg highlights how innovative manufacturing techniques can support creative design visions, bringing unique products to market that might not be feasible through conventional methods. The Analog collection represents a fusion of artistic inspiration, modern technology, and practical application, providing lighting solutions that are both effective and aesthetically pleasing. The lights are intended to appeal to those who appreciate thoughtful design and wish to incorporate elements of playfulness and color into their living or working spaces, ultimately illuminating not just a room, but also the 'inner child' within users. #Gantri #ChrisGranneberg #3DPrintedLighting #ModernDesign #HomeFurnishings #IndustrialDesign #SustainableDesign #PlayfulDesign #InteriorLighting

Signify myCreation, a leading lighting company, is revolutionizing the lighting industry through advanced 3D printing technology and a strong commitment to sustainability. The company empowers brands, startups, and designers to create personalized luminaires tailored to specific identities, visions, and needs. This is achieved through an intuitive online configurator that allows users to select from a diverse range of shapes, colors, textures, and lighting specifications. The platform offers over 190 design variants, facilitating the creation of lighting solutions that seamlessly integrate into retail, hospitality, business, and residential spaces. Additionally, all functional lighting solutions are designed to be energy-efficient and can be integrated with connected systems for further energy savings. Signify myCreation is returning to Milan Design Week 2025 with an elegant bar installation at Milan’s Palazzo Giureconsulti. This installation, designed in collaboration with Dekker Zevenhuizen and Triboo, will be illuminated by a curated selection of award-winning luminaires. The exhibition will feature the Gleam and Smooth luminaires, along with the Voila table lamp, showcasing the platform's ability to combine functionality with sophisticated aesthetics and environmental responsibility. A new addition to the Smooth Spotlight series, promising superb adaptability, will also be previewed. The Gleam luminaire, designed by Sebastian Bergne, is a refined bulb-based pendant light known for its serene, heptagon-inspired silhouette and its ability to add a touch of wonder to everyday objects. Available in multiple sizes, the Gleam design aligns with the 3D print grain, with all printed parts made from ISCC Plus certified bio-circular materials. Its minimalist and delicate nature allows it to create intimate atmospheres or serve as a striking interior accent. The Gleam lighting pendant family, recognized with a 2025 iF Design Award, reinterprets the simple glowing pendant globe through alternative geometry and Bergne’s distinctive flair. The flexibility of 3D printing enables horizontal form lines that create a skeleton of uninterrupted harmony, with each piece possessing a unique presence and allure, available in three sizes and one texture. The Smooth Spotlight series, also a recipient of the 2025 iF Design Award, is designed for hospitality and residential settings, offering superior customization in both colors and textures. This allows for the creation of unique lighting formulas to highlight spaces effectively. Its printed components are made from 65% recycled and ISCC Plus-certified bio-circular materials, while the heatsink is crafted from 85% recycled aluminum, ensuring durability and longevity. The minimalist spotlight includes a honeycomb accessory to reduce glare and improve light distribution. Its circular design ensures it can be upgraded throughout its lifespan. The Voila collection of table lamps features charmingly proportioned designs with a vibrant color palette and playful presence. These lamps, reminiscent of 1960s interior design with their petite mushroom silhouettes, are crafted from bio-circular materials like biomass and natural waste, processed into sustainable polycarbonate. The single light source shines both upward and downward, creating a mesmerizing diffused light with a mandala effect through the crafted underside of the lampshade. The Voila lamp, an iF Design Award winner in 2022, is available in various colors such as white, bronze, gold, pink, and green, subtly complementing any interior space with its lightness and versatility. Signify myCreation emphasizes eco-friendly practices by incorporating at least 65% recycled and bio-circular materials in all its products. The 3D printing process reduces material waste and carbon emissions through local, on-demand production, minimizing transportation impacts. The company actively collaborates with research institutions, startups, and industrial organizations to advance 3D printing technology and sustainable practices, having produced nearly 2 million luminaires globally. At Milan Design Week 2025, visitors can explore the potential of personalized, smart, efficient, and sustainable lighting solutions at Signify myCreation’s pavilion. The initiative plans to expand its offerings and improve user experience through enhanced configurators and advanced product roadmaps, aiming for ambitious sustainability goals such as increasing climate action revenues to 72% and achieving zero waste to landfill. Signify myCreation sets new standards in circular lighting design by blending cutting-edge technology with artistic expression and a commitment to sustainability. #LightingDesign #3DPrinting #SustainableDesign #InnovativeMaterials #MilanDesignWeek #CircularEconomy #ProductDesign #SmartLighting #BioCircularMaterials

Aztec Scenic Design, an Orlando-based firm, has successfully integrated 3D printing into its custom ceiling design projects, offering a more efficient alternative to traditional methods. The company recently completed an Arabian-inspired ceiling for a client, demonstrating the potential of additive manufacturing in intricate home decoration. Traditionally, detailed ceilings can be a significant expense, often exceeding $30,000, due to the labor-intensive process of creating molds and working with plaster. Aztec Scenic Design, however, pioneered a new approach by utilizing 3D printing to produce the decorative appliqués for their custom ceiling. This innovative method was spearheaded by Marc Leonard, a scenic designer at Aztec, who became captivated by 3D printing and sought to merge it with the company's design work. After convincing owner Gabriel Collazo of the technology's potential, Aztec established its own makerspace, specifically for incorporating 3D printing into various applications. The project began with initial drawings by Benjamin Cremer, based on Arabian patterns. Marc Leonard then translated these sketches into 3D models using 123D Design. Austin K. Butler, a scenic designer and fabricator, joined the team to manage the 3D printing process. The actual printing phase involved several 3D printers, including a Tinkerine Ditto+ and multiple Prusa i3 8-inch printers, and took approximately three weeks to complete. The materials used were around six spools of 3mm ABS filament and three spools of 1.75 PLA filament, costing just over $200, a stark contrast to the potential costs of traditional methods. The ceiling structure consists of nine wood panels, which serve as the base for the affixed 3D printed components. Gold-leafed molding, cut with a CNC router, frames the design. The 3D printed pieces underwent a multi-step finishing process: painting with acrylics, aging with oil stains, and finally, touch-ups and glazing. The entire installation, measuring approximately 18 feet by 14 feet, was completed in just two days. One of the most challenging aspects of this project was managing the approximately 400 individual 3D printed parts and troubleshooting five simultaneously operating printers. The team also faced hurdles in working with various software applications, including 123D Design for modeling, MeshMixer for editing, and Slic3r and Repetier Host for slicing. Despite these challenges, the collaborative effort of the entire Aztec crew, including Gabriel Collazo, Marc Leonard, Benjamin Cremer, Janelle Lyons, Timothy Dameron, and a friend named James, proved successful. This project highlights a significant shift in custom interior design, showcasing how 3D printing can streamline complex processes, reduce material costs, and offer greater design freedom. Aztec Scenic Design's success with this Arabian-inspired ceiling has led to further commissions, including another, more intricate ceiling for the same client's theatre, indicating a growing demand for 3D printed architectural and decorative elements. #3DPrinting #CustomDesign #CeilingDesign #HomeDecoration #AdditiveManufacturing #ScenicDesign #InteriorDesign #ArchitecturalElements #DigitalFabrication

Philips MyCreation, a brand introduced by Signify, a global leader in lighting for over 125 years, is at the forefront of sustainable design, offering innovative 3D printed lighting solutions. This brand was developed in response to growing environmental challenges, aiming to contribute to a circular economy, significantly reduce CO2 emissions, and eliminate waste. At the core of Philips MyCreation's production process is advanced 3D printing technology, where all printed components are manufactured using at least 55% recycled or bio-circular plastics. This approach not only supports environmental sustainability but also enables the creation of unique, custom-fit designs tailored to specific brands and spaces, all while maintaining a minimal carbon footprint. For design enthusiasts and professionals, Philips MyCreation offers two distinct pathways to acquire their ideal luminaires. The first option involves exploring a curated selection of pre-designed lighting solutions. These include a variety of high-quality luminaires such as downlights, projectors, and pendants. Clients can customize these pre-designed products by mixing and matching elements like color, texture, and shape, providing extensive possibilities for personalization. Notable examples from this collection include special edition pendant products such as the Spring Oasis collection, which innovatively repurposes water jugs, and the Coastal Breeze collection, which champions sustainability by utilizing recycled fishing nets sourced from the coast of Cornwall. The Jewels collection, another highlight, has received an IF Design Award, signifying its artistic and functional excellence. The second pathway caters to those seeking truly bespoke lighting solutions through a co-creation process with Philips MyCreation’s expert designers. This collaborative model empowers clients to materialize their vision, ensuring the luminaire perfectly complements their space and brand identity. The co-creation journey is streamlined into six straightforward steps: clients share their project ideas, designers develop initial sketches, and then work with the client to select the design, texture, and color. Further details are specified, a prototype is fine-tuned, and finally, the unique creation is 3D printed and delivered. This methodical process ensures that every custom luminaire is a precise and personalized reflection of the client's requirements. Philips MyCreation's commitment to sustainability extends beyond material use to the entire production lifecycle, ensuring that the future of lighting design is both brilliantly illuminated and environmentally responsible. Whether opting for customizable pre-designed options or embarking on a comprehensive co-creation journey, Philips MyCreation offers unparalleled design possibilities. The brand positions itself as a beacon of inspiration for those looking to integrate innovative and sustainable lighting solutions into their environments. This initiative not only addresses critical ecological concerns but also offers a flexible and creative platform for diverse lighting needs. DesignWanted plans to further explore Philips MyCreation's impact in an upcoming series of articles, delving deeper into how the brand is revolutionizing the lighting industry with its responsible approach to illuminating spaces. #LightingDesign #3dPrinting #SustainableDesign #InnovativeMaterials #CircularEconomy #CustomLighting #EcoFriendly #DesignInnovation

This article presents an in-depth conversation with architect Bjarke Ingels, marking nearly ten years since his last interview with Archinect. The discussion focuses on BIG's extensive work in 3D printing and its implications for the architectural profession, as well as the emerging role of artificial intelligence in design. The interview begins by exploring BIG's latest collaboration with construction technology specialists ICON: a collection of pre-designed, 3D-printable homes for ICON's new CODEX catalog. Ingels details the philosophy behind these designs, which originated from investigations into how single-family homes could leverage 3D printing technology. He explains the three distinct collections within CODEX: the 'Storm' collection, featuring hurricane-resistant designs; the 'Fire' collection, offering resilience against wildfires; and the 'TexNext' collection, reimagining traditional Texan typologies like shotgun and porch houses through a 3D printing lens. These collections aim to provide affordable, customizable housing solutions that respond to specific environmental challenges and regional aesthetics. The conversation then delves into how previous 3D printing projects, such as the Mars Dune Alpha simulation habitat, the hospitality project with Liz Lambert, and the 100-home Wolf Ranch development, have informed BIG's approach to the CODEX collection. Ingels highlights that these earlier experiences demonstrated the potential for organically delivering large-scale communities. The traditional method of viewing demonstration homes and purchasing a plot for later construction is contrasted with the efficiency of having 3D printers on-site, capable of delivering a wider variety of customized homes on demand. This approach, termed 'home delivery on-demand,' offers increased customization for a broader audience and can be applied to both large developments and individual plots. Ingels also discusses the specific circumstances where 3D printing offers advantages over conventional construction methods. He points out that innovations driven by the challenges of building on the Moon and Mars, such as ICON's new robotic arm printers, are now yielding benefits for Earth-bound construction. These advanced printers can create taller, more complex structures with reduced site preparation, increasing quality and speed while lowering costs. For the immediate future on Earth, low-rise structures, particularly single-family homes, are best suited to leverage 3D printing's benefits, including effortless customization and freedom of form, which represent significant improvements over traditional methods. Furthermore, the article explores the concept of new business models for architects. Ingels suggests that the product-based model, exemplified by CODEX, allows architects to refine and improve their designs over time, similar to product manufacturers. This contrasts with the traditional service-based model where each project starts from scratch. He envisions a future where architects could generate ongoing royalties from their intellectual property, even after retirement, as seen with his co-founded design practice, KiBiSi. This product-oriented approach also enables continuous feedback and iteration, leading to enhanced quality and efficient delivery. Finally, the discussion addresses the impact of artificial intelligence on architectural practice. Ingels reflects on the progression of design tools, from crayons to rulers to mice, each offering new possibilities while requiring a shift in control. He posits that AI represents the next evolution, allowing young designers to leverage a creative force comparable to that of a large, experienced team. AI eliminates barriers to entry for delivering complex visions with precision and skill, much like modern digital camera technology has democratized film production. Ingels expresses excitement for architecture-focused AI systems like ICON's 'Vitruvius,' acknowledging that while these technologies are in their early stages, their rapid pace of improvement, driven by global collaboration and learning, promises a future of immense potential for the architectural profession. #BjarkeIngels #BIG #ICON #3DPrinting #ArchitecturalInnovation #ArtificialIntelligence #HomeDesign #SustainableArchitecture #FutureOfArchitecture

Hella Jongerius, a renowned designer, has consistently explored color and textiles throughout her extensive career, applying her innovative approach to diverse projects ranging from KLM airline interiors to custom upholsteries for Maharam. As design director of rugs at Danskina and art director of Vitra’s Colour and Material Library, she developed systems for matching colors and materials within their vast collections. Jongerius's work extends beyond industrial demands, driven by a critical perspective on the design industry's limitations and a strong social and political agenda. She advocates for integrating craft and the human touch into industrialized processes, celebrating imperfections, and promoting a diverse, light-reactive color palette. Collaborating with design critic Louise Schouwenberg, she co-authored the manifesto “Beyond the New,” urging designers to prioritize experimentation over hyper-consumerism and the industry's relentless pursuit of market share. Her recent focus has shifted towards exhibitions to share her research, following "Breathing Colour" with "Interlace" and "Woven Cosmos," which delve into the potential of weaving, particularly 3D weaving. Jongerius explains her choice to focus on weaving over knitting by highlighting knitting's already advanced state and ease of programming, unlike weaving, where software often remains outdated. She took a sabbatical year to immerse herself in the entire weaving process, aiming to understand its full potential beyond industrial efficiency demands. Jongerius critiques how automation, particularly the Jacquard loom, while initiating mass production, has simultaneously diminished the creative aspect of weaving, reducing the versatile hand loom to a mere robot. She laments the textile market's shallow state, blaming globalization and fast fashion for accelerated production cycles and increased pollution. She notes that complex weaving constructions have been replaced by simpler plain weaves, and material options have become standardized, limiting warp choices to black or white and restricting weft options to fast-running yarns. To challenge this, Jongerius and her team began building their own 'human looms' to create 3D weaving structures and explore possibilities unattainable in industrial settings. These efforts culminated in the "Interlace" exhibition at Lafayette Anticipations, where the entire building was transformed into a gigantic loom, serving as a workshop for weavers, designers, and artists to experiment with various weaving and braiding techniques. Upon receiving an invitation from the Gropius Bau in Berlin, Jongerius expanded her research to investigate the cultural and spiritual meanings of weaving and explore the future of 3D weaving, asking what new constructions could emerge and how they might benefit textiles, design, and other disciplines. Her studio is a hub of innovation, where a team of textile engineers and programmers combine digital programming with manual work on a digital Jacquard machine. They utilize the TC2 loom for experimentation rather than just sampling, allowing for on-the-fly changes in weft, diverse yarns, and varying thicknesses. Jongerius discusses the evolution of her "Seamless Loom" from Paris, which aimed to develop the skin of a three-dimensional object, to a rebuilt version in Berlin. In Berlin, they developed new know-how, including hacking their four-part loom to return to a flat loom, enabling multi-axial weaves and creating woven windows as a personal research project. This same loom allows for spatial work, where instead of weaving around a structure, they build spatial structures from the ground up by shifting the warp in multiple layers. This method creates "sandwiches" of double-faced or layered fabric, which can be cut open to unfold into three-dimensional structures, similar to pop-up cards. This innovative approach involves deconstructing traditional weaving hierarchies, questioning the conventional roles of warp and weft. Jongerius sees potential applications for her research in various fields, including the biomedical field for morphing membranes and vascular prostheses, and in carbon fibers for the automotive and aerospace industries. She envisions a future of "pliable architecture" made from 3D-woven architectural structures that are strong, lightweight, and offer a reduced carbon footprint. Such textile architecture could integrate insulation, regulate climate, and allow for personalized colors, creating pleasant and adaptable environments, all within a single "brick" material. #HellaJongerius #WeavingArchitecture #TextileInnovation #3DWeaving #DesignCritique #SustainableDesign #Craftsmanship #ArchitecturalTextiles #JongeriusLab

Decimal, a company with bases in Vancouver and Mexico City, is at the forefront of integrating design and technology to produce innovative 3D printed light fixtures. The company emphasizes a novel approach to lighting, departing from the traditional lightbulb and socket paradigm that has persisted since 1879. Instead, Decimal centers its products around a single, high-quality LED module, engineered for longevity and superior performance. These LED modules are designed to last up to 70,000 hours, offering a sustainable and efficient lighting solution. The unique forms of Decimal's light fixtures are made possible through additive manufacturing, commonly known as 3D printing. This technology allows for the creation of intricate and previously impossible shapes and designs, offering a significant advancement in the aesthetic and functional possibilities of lighting. The company highlights that these fixtures are highly customizable, with a variety of attractive colors and finishings available to suit diverse preferences and interior design schemes. This level of customization ensures that each fixture can be tailored to meet specific aesthetic requirements. Decimal operates on a collaborative platform, engaging tech-savvy designers from around the globe to create its 3D printed shades. This international collaboration fosters a diverse range of design perspectives and constantly pushes the boundaries of lighting design. The company aims to appeal to individuals worldwide who possess a passion for both design and technology, offering them access to cutting-edge lighting solutions that merge artistry with engineering. The integration of LED technology and additive manufacturing represents a transformative period in the lighting industry. LED technology provides endless design possibilities by liberating designers from the constraints of traditional light sources, allowing for greater flexibility in form and function. Concurrently, additive manufacturing empowers the creation of complex geometries and intricate details that would be unachievable with conventional manufacturing methods. Decimal positions itself at this intersection, leveraging these advancements to deliver a new generation of light fixtures that are both visually striking and technologically sophisticated. By focusing on a single, optimized LED light source and utilizing the creative potential of 3D printing, Decimal is challenging conventional notions of lighting. Their products are not merely functional items but serve as contemporary design elements that embody the synergy of modern technology and global design talent. This approach promises to reshape consumer expectations for lighting, offering products that are durable, energy-efficient, customizable, and aesthetically revolutionary. #3DPrinting #LightFixtures #LEDTechnology #ProductDesign #AdditiveManufacturing #HomeDecor #TechnologicalInnovation #SustainableDesign

Village Handcrafted Cabinetry, a company based in Lansdale, Pennsylvania, has been creating custom cabinetry and wood products for over three decades. Founded by Joseph Trave, the business specializes in designing, building, finishing, and installing a wide range of custom items, including bathroom vanities, cabinet doors, kitchen cabinets, pantries, and walk-in closets. The company caters primarily to mid- to high-end residential clients, working with designers, builders, remodelers, and a small percentage of retail customers. Joseph Trave's passion for woodworking began at a young age, leading him to establish the company in 2000. Starting from a 400-square-foot garage, the business has expanded significantly to occupy over 60,000 square feet of manufacturing space. In 2003, Trave acquired another local cabinetmaker's business, Village Woodshop, integrating its machinery and employees. The company later moved to Lansdale in 2006, establishing a showroom and a larger production facility. Over the years, the company has navigated economic challenges, including recessions and a pandemic, through the dedicated efforts of its four-person management team, which includes Joseph Trave as CEO, his wife Gina as director of marketing, Gary Marks as director of finance and purchasing, and Jennifer Marks as director of Human Resources/payroll. Village Handcrafted Cabinetry prides itself on its ability to produce custom products entirely in-house. All cabinet construction utilizes mortise and tenon joinery. The company also produces its own moldings, offering an extensive library of 1,200 profiles and the capability to create custom profiles to match existing designs. The manufacturing process incorporates advanced technology, including CNC equipment for both panel processing and solid-wood machining. Automated loaders and unloaders are used with their Stratos 3-axis machining center and Weeke Vantage 2000 CNC processing center, facilitating efficient production of nested panels and raised panel doors. Further technological investments include TigerStop stations for producing stiles and rails, and a miter fold machine for creating precisely joined corners and face frames. For sanding, the company uses a Timesavers multi-head flat sander and an MB Roba Tech sander, which is capable of sanding both flat and profiled parts. A sophisticated dust collection system gathers sawdust, which is then burned to provide heat for the facility during winter, showcasing an environmentally conscious approach to waste management. The company also features an in-house finishing lab, referred to as the “finishing kitchen,” where skilled artisans perform custom color matching. Clients often present complex finishing challenges, and the team meticulously creates samples under bright lights to ensure exact color replication, with both the company and the client retaining a sample for consistency. A newer addition is a small in-house metalworking shop, which handles minor fabrication for items like hoods and floating shelves, ensuring proper separation from woodworking operations for safety. Despite its current 60,000 square feet of production space, the company produces approximately seven to ten kitchens per week and is exploring further growth opportunities, including potential acquisitions or additional facilities. #cabinetry #customCabinets #woodworking #CNCManufacturing #residentialDesign #kitchenDesign #handcraftedLook #productionEfficiency #woodDustCollection

Starbucks has inaugurated its inaugural fully 3D-printed café in Brownsville, Texas, marking a significant advancement in architectural and construction methodologies for the brand. This 1,400-square-foot drive-thru and pickup establishment was constructed by Peri 3D Construction utilizing a Cobod BOD2 printer. The design prioritizes efficiency and rapid manufacturing, aligning with Starbucks' operational model as a high-volume coffee provider. The building's aesthetic features extruded concrete walls with a layered, ribbed texture, a direct result of the robotic printing process, presenting an industrial and pragmatic appearance. The project reflects a departure from the traditional cozy ambiance often associated with coffee shops, instead embracing a functional, transactional approach. Unlike some of Starbucks' more architecturally unique locations, such as flagships in Dubai or Kyoto, this Texas café is designed for quick service rather than an extended dwelling experience. The structure's limited size (1,400 sq ft or 130 sq m) further reinforces its role as a drive-thru and pickup point, catering to customers who seek convenience and efficiency. The construction process involved the Cobod BOD2 printer, a large-scale robotic system that precisely extrudes a specialized concrete mix according to digital blueprints. This method allows for solid, relatively quick construction and results in a distinctive, almost otherworldly surface texture. While the exact budget for the Brownsville location remains unconfirmed, earlier government filings suggested an investment around $1.2 million, indicative of the advanced technology and innovative construction techniques employed. The choice of 3D printing for this Starbucks outlet can be seen as a symbolic alignment with the brand's overarching identity, which emphasizes speed, standardization, and a utility-like service for urban consumers. The building's character, defined by its layered concrete and industrial design, mirrors the automated and streamlined nature of Starbucks' product delivery. This architectural choice underscores a future vision for construction that prioritizes efficiency, functionality, and rapid deployment, potentially setting a precedent for how commercial spaces are designed and built in the future. #3DPrinted #Starbucks #ArchitecturalInnovation #SustainableConstruction #RapidManufacturing #CommercialDesign #ConcreteConstruction #RoboticConstruction

Mitsubishi Jisho Design architects Kei Atsumi and Motoya Iizawa unveiled 'The Warp' pavilion at the tenth Dubai Design Week, an immersive installation envisioned as a zen Japanese tea garden. This pavilion aims to bridge ancient Japanese craftsmanship with contemporary 3D printing technology. Situated amidst Dubai's modern skyscrapers, the installation offers a temporal journey from traditional Japan to the emirate's futuristic landscape. The Warp was activated through various events, including matcha tea ceremonies and design workshops, emphasizing its cultural and educational aspects. The core concept of The Warp pavilion revolves around the innovative integration of centuries-old Japanese joinery systems with advanced 3D printing techniques. Kei Atsumi highlighted that the pavilion comprises over 900 unique pieces, each featuring distinct shapes and curves, a complexity achievable only through computational design. These components are assembled using traditional Japanese joinery, a system historically employed in wooden shrines and temples. This method allows for easy assembly, disassembly, and relocation, showcasing an adaptive application for a more intricate, modern structure while ensuring its portability and reusability. The design process leverages computational modeling to precisely generate these small, double-curved panels, which seamlessly interlock to form the overall structure without the need for adhesives, nails, or metal fittings. The pavilion's journey for visitors commences at a pebbled garden, leading to the tea house, an intimate wooden space designed with a gentle twist that visually references Arabian sand dunes. Upon entering through a traditional small, low passage known as a nijiriguchi, visitors can participate in a matcha ceremony led by a Japanese tea master. This experience is intended to transport individuals into a Japanese spiritual realm, while simultaneously offering a view of Dubai's iconic Burj Khalifa, thus creating a dialogue between historical tradition and modern advancement. This spatial arrangement underscores the pavilion's role as a portal connecting disparate cultures and eras. Beyond its aesthetic and cultural significance, The Warp pavilion also promotes Mitsubishi Jisho Design’s Regenerative Wood technique. This circular production system focuses on reintegrating wood waste back into the forestry industry. Atsumi noted that typically, only about 50% of wood material is utilized in architecture and other products, with the remainder becoming waste. The pavilion addresses this issue by constructing the entire structure from a 3D-printed wood composite. This composite material is composed of 30% recycled sawdust and 70% bioplastic, making the pavilion a sustainable and beautiful example of material reuse and ecological responsibility. This project exemplifies a new language of architectural expression, combining traditional wisdom with cutting-edge technology for sustainable design and construction. #KeiAtsumi #DubaiDesignWeek #JapaneseJoinery #3DPrinting #SustainableArchitecture #PavilionDesign #WoodComposite #ComputationalDesign #MitsubishiJishoDesign

The increasing adoption of additive manufacturing has expanded the role of 3D printing beyond industrial applications, establishing it as a versatile medium in art studios and various creative fields. This technology facilitates the creation of innovative artistic, conceptual, and cultural works, and has even contributed to the digital preservation and reconstruction of historical artifacts and global heritage sites. While not always the central focus, 3D printing often serves as a crucial supporting tool, enabling designers, artists, and artisans to realize new designs and concepts. A prime example of this collaborative approach is found in the Forma Fabrica collection by industrial designer Nir Neria. This collection reinterprets the traditional porcelain vase by exploring the interplay between different materials and design processes. Neria's method integrates slip casting, a ceramic technique typically used for complex shapes that traditionally relies on plaster molds. However, Neria has modernized this ancient technique by combining it with 3D printing and textiles, resulting in a novel, sustainable, and reusable molding process. The design process begins with computer-aided design (CAD) software, where the vase is rendered in 3D. This digital stage allows for precise definition of each mold component and how they will interlock. Subsequently, these mold components are 3D printed. These printed parts are then integrated with fabric, which the artist sews together. The assembled fabric and 3D-printed elements form the mold, ready for porcelain slip casting. During casting, liquid porcelain is poured into the mold and then drained after a sufficient layer has adhered to the inner fabric walls. Once the porcelain reaches the desired firmness, the mold can be disassembled, and the piece is prepared for firing in a kiln. The use of fabric as a molding material imbues the finished vases with distinctive visual and tactile qualities. The impressions of the cloth's texture, stitching, and folds are visibly transferred to the surface of the vessels, creating an intriguing contrast between the perceived weight and malleability of the material. Furthermore, the application of pigments to the inner fabrics before casting introduces an additional dimension, infusing color that mimics marbling or even denim patterns. A significant advantage of this method is the reusability of the mold. The modular nature of the 3D-printed support structure also allows for extensive customization, enabling the creation of numerous unique shapes and configurations from a relatively small set of initial components. The Forma Fabrica collection exemplifies Nir Neria's commitment to innovative design, with 3D printing and sustainable biomaterials increasingly central to his work. #3DPrinting #AdditiveManufacturing #VaseDesign #CeramicArt #SlipCasting #IndustrialDesign #SustainableDesign #TextileIntegration #NirNeria

The fashion industry is undergoing a significant transformation driven by the adoption of digital tools, particularly 3D rendering. This technology is fundamentally changing how garments are conceptualized, developed, and presented, offering numerous advantages over traditional methods. 3D rendering allows designers to visualize, test, and refine their ideas in real-time, drastically cutting down development timelines, minimizing material waste, and introducing unparalleled flexibility into design workflows at every stage of production. A key enabler of this digital shift is the reliance on cloud-based infrastructure to handle resource-intensive tasks. These systems facilitate the rapid processing of complex visual data, overcoming the limitations of local hardware and accelerating delivery schedules. Cloud render farms, which involve multiple computers working collaboratively to render large digital assets remotely, are a critical component of this infrastructure. By utilizing these external networks, designers can maintain high visual quality without overloading their local systems, making advanced rendering capabilities accessible even to smaller studios. 3D rendering provides superior design accuracy and real-time flexibility compared to traditional sketch-based design. It precisely simulates fabric drape, garment movement, and how colors appear under different lighting conditions, eliminating the need for physical prototypes in early stages. Designers can instantly adjust cut, proportion, and details, fostering continuous creative development and immediate feedback among team members. This iterative process enhances communication, improves decision-making, and significantly reduces the number of costly revisions typically associated with physical sampling. Furthermore, 3D rendering offers substantial cost savings and speeds up the development cycle. Physical prototyping is both time-consuming and expensive, requiring materials, labor, and transportation. Digital iterations, conversely, incur no material waste or shipping costs, transforming a process that once took weeks into days or hours. This acceleration is particularly beneficial for fast fashion, which demands rapid production cycles in response to seasonal trends. The benefits extend beyond development, as digital assets created during the design phase can be repurposed for e-commerce imagery, advertising, and social media, reducing the need for traditional photoshoots and expanding marketing output at a lower cost. In terms of sustainability, 3D rendering plays a crucial role by significantly reducing the need for physical samples. Each digital prototype saves fabric, trims, and transportation, thereby lowering the environmental impact of the design process through reduced material consumption and emissions. Digital tools also enable more precise planning, allowing designers to refine every detail before physical production, which minimizes overstock and improves inventory accuracy—major contributors to fashion waste. For consumers, 3D rendering enhances the digital shopping experience by providing detail-rich product pages. Features such as 360-degree views, fabric zoom-ins, and augmented reality try-ons help shoppers better understand how garments will look and fit, reducing guesswork and increasing satisfaction. These rendered visuals are consistent across various platforms and adaptable to different uses, from desktops to mobile devices, and even AR/VR environments. Strong visuals ultimately lead to higher purchase intent and lower return rates. Personalization and customization are also supported at scale through 3D tools, allowing shoppers to digitally explore different colorways, prints, and fits before making a purchase. This level of engagement fosters consumer interest and supports made-to-order models, which help reduce unsold inventory. For manufacturers, this means more accurate specifications and fewer post-sale adjustments, improving overall efficiency. Fashion shows have also embraced this digital evolution, with designers now utilizing virtual lookbooks, CGI campaigns, and immersive digital presentations. These formats offer greater creative freedom, reduce logistical complexities, and eliminate travel and expenses associated with traditional shows. Rendered environments can be tailored to suit each collection's tone, giving designers more control over narrative and experience, and opening up broader audiences without additional infrastructure. Platforms like CLO3D, Browzwear, and Blender are integral to modern fashion workflows, providing the necessary tools to build, test, and animate garments in realistic environments. To meet the computational demands of these applications, brands increasingly rely on scalable rendering services like RebusFarm. These services process complex visual data and generate high-resolution assets efficiently, enabling teams to maintain speed and consistency without hardware limitations and ensuring smooth integration of digital rendering into daily operations. Early adopters such as Balenciaga, H&M, and Tommy Hilfiger have successfully integrated 3D rendering into their operations. Balenciaga utilized virtual runways for immersive digital experiences during lockdowns, while H&M reduced fabric waste by 30 percent through digital prototyping, demonstrating that efficiency and creativity can coexist. These examples highlight how digital rendering enhances both operational performance and creative output, offering scalable solutions for both large enterprises and smaller teams. Ultimately, 3D rendering has become a foundational element in fashion design, enabling precision, speed, adaptability, and sustainable growth, thereby preparing brands for a dynamic market with agile and efficient systems. #3DRendering #FashionDesign #DigitalFashion #Sustainability #CloudComputing #ECommerce #Personalization #VirtualShows #FashionTechnology

This article introduces Shadé Akanbi, a Brooklyn-based freelance pattern designer and the Creative Director and Designer behind Printed Pattern People. Akanbi's design philosophy is rooted in her multicultural upbringing, which has instilled in her a passion for creating global fusion lifestyle and brands. Her work involves translating traditional ethnic patterns and textiles into contemporary interpretations suitable for everyday use. Akanbi's creative process often begins with identifying a specific motif or detail from traditional textiles. This chosen element then serves as the central inspiration, around which she constructs new patterns using fresh colors and additional details. She is prolific in her output, creating between one to six prints daily, drawing inspiration from personal collections, client ideas, or a combination of both. Akanbi is known for her collaborations with various brands, in addition to maintaining her extensive collection of global textiles. Her first major collaboration was with Anthropologie in early 2020, where her artwork was featured in an accessories and sleepwear collection. Since then, she has partnered with notable brands such as Intermix, Zuri, S'well, Chasing Paper, Netflix, and Target. Her most recent collaboration at the time of the article's publication was with Bounty Paper Towels, as part of their Inclusive Artists Project initiative. This partnership involved her artwork being featured on the Bounty Prints collection paper towels and her image appearing on the packaging, an experience she described as surreal due to the widespread nature of the household item. The article highlights Akanbi's ambition and future aspirations. As an avid traveler, she expresses a desire to collaborate with airlines and boutique hotel brands, specifically mentioning Delta, Jetblue, Kimpton, and Hyatt, envisioning these as platforms to showcase diverse art mediums. Her interest extends to athletic footwear brands like Nike, Adidas, Puma, and Vans, reflecting her passion as a sneaker collector. Furthermore, her background as a collegiate basketball player and a fan of the NBA/WNBA drives her dream to work with her favorite sports teams. Ultimately, Akanbi seeks to partner with brands with which she shares strong personal connections, aiming to utilize these collaborations as unique avenues for artistic expression. Her personal history significantly influences her artistic vision. Akanbi recounts how her upbringing, from her mother's styling choices to her father's Nigerian cooking, and her early travels, particularly her first trip to Nigeria, profoundly shaped her as an artist. These diverse experiences, encompassing sights, sounds, textures, tastes, and emotions, have cumulatively impacted her design sensibility. Her ability to blend cultural influences and her innovative approach to pattern design underscore her unique position in the design world. The article concludes by encouraging readers to explore more of Shadé Akanbi's work via her Instagram and mentions a past collaboration where she provided a Designer Desktop wallpaper for Design Milk. #PatternDesign #ShadeAkanbi #TextileArt #CulturalFusion #BrandCollaborations #ArtisticProcess #DesignInspiration #GlobalTextiles #CreativeDirector

This study addresses the limitations of traditional interior design and space planning, which often lack real-time decision-making support and machine-aided creativity, by proposing an intelligent framework. The framework integrates human cognitive insights with an AI-powered design process, bridging the gap between spatial ability cognitive understanding and practical design applications. The proposed system combines hybrid models, specifically CenterNet, StyleGAN3, and a Transformer model, to enhance artistic cognition in interior design and space planning. The system's workflow begins by utilizing CenterNet to detect and map spatial aspects from user input, which can include text, sketches, or spatial signals. These semantic and spatial features then guide StyleGAN3 to generate visually coherent interior visuals that align with the desired style. The Transformer model functions as a sequence-aware logic engine, responding to user interactions to refine the design process. This approach moves beyond instructional modeling by offering machine-aided co-design that considers user preferences and aims for enhanced utility and aesthetic appeal. Experimental evaluation involved categorized user intents, room layouts, and high-resolution interior style images. StyleGAN3 successfully generated high-quality and diverse outputs, indicated by a Fréchet Inception Distance (FID) of 11.6. CenterNet demonstrated excellent performance in spatially accurate localization with a mean Average Precision (mAP) of 84.3% at an IoU of 0.75. Human assessments, conducted with artists, yielded high usability satisfaction and support for creativity, with an average score of 4.5 out of 5. These results highlight the effectiveness of integrating generative artistic cognition with structured spatial thinking within a collaborative AI system. The research further explores the practical and theoretical implications of this human-AI interaction. Theoretically, it contributes to understanding how spatial cognition and AI can be combined to support creative decision-making, bridging educational models of spatial aptitude with applied AI-driven design tools. Practically, the technology offers a scalable, real-time method for optimizing the efficiency and quality of interior design processes. It enables professionals to accelerate laborious layout procedures while maintaining personalized visual outputs that reflect client intentions. The integration of user feedback through the Transformer module dynamically alters design iterations, leading to faster turnaround times and improved customer satisfaction. The framework’s accessibility, supporting input via sketches, text, and style notation, caters to users with varying levels of design expertise. The study also includes an ablation study to quantify the contribution of each module. The full integration consistently demonstrated the best performance across metrics: lowest FID (19.2), highest Structural Similarity Index (SSIM) of 0.74, and highest human satisfaction rating (4.3). This confirms the value of the cognitive-visual fusion in interior design creation, demonstrating that each additional module progressively improves visual realism and perceptual quality. Ethical considerations for human evaluation were addressed through approval from the Ethics Committee of Shenzhen City Polytechnic and informed consent from participants. The study utilizes publicly available datasets such as Structured3D, MIT Indoor Scenes, and COCO Captions for training and evaluation, ensuring reproducibility. #InteriorDesign #SpacePlanning #HumanMachineInteraction #ArtisticCognition #DeepLearning #ArtificialIntelligence #GenerativeDesign #CenterNet #StyleGAN3

The article explores the potential of mycelium, the root system of fungi, as a sustainable and versatile material for 3D printing. It highlights mycelium's environmental benefits, particularly in contrast to materials like plastic and cement, which have significant ecological footprints. Mycelium acts as a natural binder, leveraging its hyphae to fuse with and reinforce other materials like wood or straw, forming a solid, moldable, and printable composite. Its carbon-absorbing properties and ability to thrive on waste materials further contribute to a circular economy. The article details the numerous advantageous properties of mycelium. It is a renewable raw material with cost-effective and low-energy processing requirements, and it is easily recyclable and biodegradable. Mycelium-based materials are harmless to human health, non-allergenic, and non-toxic. Physically, mycelium exhibits excellent heat-insulating, flame-resistant, and hydrophobic qualities, while also being remarkably strong and stable. These characteristics make it suitable as a replacement for a wide array of conventional materials, including leather, wood, cardboard, polystyrene, and insulating wool, broadening its applications across various industries. The integration of mycelium with 3D printing technologies is a key focus. The additive nature of 3D printing, which minimizes waste, combined with bio-based materials like mycelium, offers an ecological production method. Extrusion-based 3D printing is commonly used, where a mycelium composite paste is shaped. The composition of this composite can be varied to achieve specific material properties, and the resulting products can feature diverse colors, textures, and patterns. However, the printing process is complex, requiring careful control of parameters. Mycelium is first enriched with raw materials such as wood, sawdust, paper, or cardboard to create a mycocomposite. This material must then be cultivated to achieve the necessary flowability, elasticity, and malleability for printing. A sterile environment is crucial during printing to prevent contamination, as mycelium is susceptible to bacterial infestation. After printing, a second colonization phase allows the living mycelium to expand and solidify the composite. Finally, heat drying stops the fungal growth, ensuring the material properties remain stable and preventing further spread. The article presents several case studies demonstrating mycelium's applications. In architecture, the Shape Lab at Graz University of Technology developed MyCera, a composite of clay, sawdust, and mycelium, showing promise as a sustainable alternative to cement-based binders. London-based Blast Studio created 'The Tree Column,' an architectural element from waste cardboard and mycelium. ETH Zurich's MycoTree project further explored mycelium and bamboo for stable, branched structures. Mycelium is also being utilized for underwater structures, such as those by Urban Reef. In interior design, companies like Buřinka offer designer furniture from mycelium and wood, and artists like Eric Klarenbeek create lightweight furniture from mycelium and straw. Yasmine Mahmoudieh showcased mycelium furniture at the Architecture Biennale, and bioMATTERS studio developed MYCO ALGA tiles from algae and mycelium. Beyond aesthetics, Fraunhofer Institutes have investigated mycelium's insulating properties for sound absorbers and high-performance acoustic loudspeakers. Intriguingly, mycelium's regenerative capabilities are being explored in medicine, with ETH Zurich and TU Delft developing a self-healing hydrogel from shiny lacquer fungus for potential robotic skin applications. These diverse projects underscore mycelium's potential as a sustainable alternative across numerous fields. #Mycelium3DPrinting #SustainableMaterials #BioBasedMaterials #AdditiveManufacturing #GreenBuilding #CircularEconomy #ArchitecturalInnovation #InteriorDesign #MaterialScience

The architectural and engineering firm edg has introduced the Synthesis 3D collection, a line of cast-concrete furniture and wall paneling developed using the firm's proprietary 3-D printing software, also named Synthesis. This collection exemplifies the intersection of technology and design, showcasing innovative methods in material manipulation and customization. edg's venture into 3-D printing began with the restoration of historical building façades in New York City. The firm leveraged 3-D printing technology to create intricate molds for these repairs, leading to the Modern Ornamental collection of façade designs inspired by the city's architecture. The success of this initial application spurred the development of the Synthesis software. The Synthesis software provides an accessible platform for designers to generate complex designs. It allows for the transformation of simple sketches into digital renderings, which can then be extensively modified by the designer. Once the digital rendering is finalized, a 3-D printed mold is produced to create the physical product. This process offers a high degree of customization in terms of colors, finishes, and design alterations, providing designers with extensive creative freedom. A key advantage of this software is its cost-effectiveness, making advanced design and manufacturing processes more accessible to architects and designers who may not have large budgets. The Synthesis 3D collection itself demonstrates the software's capabilities, featuring cast-concrete pieces with a raw finish that are fully customizable. The designs within the collection are notable for their unconventional forms, pushing the boundaries of what is traditionally achievable with dense materials like concrete. The collection includes various tables such as the Carve, Goth, Tutu, Bolt, Zen, and Nacci, each showcasing unique and complex configurations that highlight the software's ability to create seemingly physics-defying structures. This collection represents a significant step forward in the application of 3-D printing in design, suggesting future possibilities for architectural and interior design elements. #3DPrinting #ConcreteFurniture #ArchitecturalDesign #ProductDesign #Customization #InteriorDesign #TechnologicalInnovation #SynthesisSoftware

Material selection is a critical yet complex aspect of interior design, requiring designers to consider aesthetics, durability, sustainability, and cost. Technical constraints, if discovered late in the design process, can lead to costly changes. To address this, a study explores the integration of generative AI tools, specifically ChatGPT and DALLE-2, into the conceptualization stage of interior design to aid in 3D texturing and material selection. The research involved developing a prototype web application that mimics common 3D modeling software interfaces. This prototype uses DALLE-2 to generate texture maps from text prompts and ChatGPT to provide contextual material and color suggestions. The system does not use fine-tuned models but relies on prompt engineering to leverage the capabilities of these large-scale generative AI models. The Material Generator module allows designers to input material names to create various texture maps, including variations and keyword-based refinements. The Suggestion Chatbot offers material and color palette suggestions based on user queries, incorporating details on properties and reasons for suggestion. It can also integrate web search results for current trends and consider a design brief for contextual relevance. An exploratory user study was conducted with 11 participants (six professional designers and five interior design students) who were tasked with texturing an untextured outdoor patio according to a design brief. The choice of an outdoor patio highlighted the need for careful material selection due to environmental considerations. The study aimed to assess how generative AI benefits designers in texturing and material selection and to understand their interaction patterns with these tools. Task load was measured using the NASA Task Load Index (NASA-TLX), and creativity support was assessed with the Creativity Support Index (CSI). The results indicated a moderate task load, with an average NASA-TLX score of 47.26 out of 100. Professionals experienced higher mental demand, while students reported higher frustration. Participants generally found the system provided moderately high creativity support, with an average CSI score of 72.82 out of 100. High scores were noted for enjoyment and exploration, suggesting that the system effectively helped designers discover different materials and textures. However, expressiveness and immersion scores were moderate, indicating room for improvement in aligning the tools with designers' intuitive expression and enhancing user engagement. Qualitative feedback revealed several benefits: designers found it easy to search for specific textures and materials, saving time compared to traditional search methods. The contextual suggestions from the chatbot, especially when integrated with the design brief, were deemed accurate and helpful. Informative material descriptions aided ideation, particularly for students. Designers also appreciated the ability to explore an infinite array of texture maps and material options, overcoming limitations of predefined material libraries. Challenges included the system's slow response time, which impacted workflow and user satisfaction, and the lack of essential 3D features (like adjusting objects and lighting) due to the prototype's standalone nature. Concerns about the chatbot's credibility and its knowledge cutoff for current trends were also raised. Some designers struggled with using text-based input for visual tasks, preferring image-based selection. Mismatches between suggested material descriptions and their accompanying texture maps were also noted. Interaction patterns showed two primary approaches: some designers heavily used the Material Generator for exploration, experimentation, and refinement through keywords, often involving a trial-and-error process. Others adopted an assisted creativity approach, frequently consulting the Suggestion Chatbot for suitable materials and colors, then using the Material Generator to explore texture variations. Designers also considered lighting and color themes, frequently rendering scenes to visualize material appearance under different lighting conditions. The study concludes with suggestions for future improvements, including fine-tuning AI models with domain-specific datasets, enhancing usability, and expanding the scope to include other design elements like furnishings and lighting setups. #GenerativeAI #HumanAICocreation #MaterialSelection #3DTexturing #InteriorDesign #DALLE2 #ChatGPT #DesignWorkflow #CreativitySupport