7 Top AI Tools for Architectural Rendering and Visualization
CategoriesArchitecture

7 Top AI Tools for Architectural Rendering and Visualization

Architizer’s Tech Directory is a database of tech tools for architects — from the latest generative design and AI to rendering and visualization, 3D modeling, project management and many more. Explore the complete library of categories here.

Architectural rendering is not a foreign concept. During the Renaissance, Italian architects such as Leon Batista Alberti, Filippo Brunelleschi and Donato Bramante used axonometric sketches and carefully hand-drawn perspectives to communicate their designs. In the late 20th century, however, the hand-drawn renderings gave way to computer-generated images. Suddenly, what took countless hours of careful color washing and shadow hatching became a task of playing around with sun values and texture mapping within a three-dimensional, digital environment. With the emergence of AI, the art of rendering has transformed into an act of guided wordplay: a new, innovative way of digital collage-making.

Still, the “original” artistry of architectural rendering is not lost. Even though the architect’s hand has been replaced by computer algorithms and machine learning processes, utilizing AI visualization tools requires the same amount of ingenuity, creativity and exploration. Architects can push architectural visualization’s boundaries through word prompt testing, digital collage exploration, and even hand-sketch-to-rendering experiments, producing more vivid and immersive designs than ever.

Without further ado, here are the top seven AI tools that unlock unprecedented architectural rendering and visualization capabilities.


Best AI Rendering Tool for Text-Prompt Imagery

alt="Midjourney"Midjourney is perhaps the most well-known AI visualization tool in the architectural industry. It is currently available via the Discord server, where users collaborate with the Discord bot to generate conceptual imagery. Midjourney has three basic operational commands: the “/imagine” command uses text prompts to produce a set of renderings, the “/blend” command which enables architects to blend two images together and finally, the “/shorten” command which suggest alternative, shorter, prompts to achieve better results. It also offers additional text abbreviations such as image ratio control and negative prompting – i.e., elements that are excluded from the composition.

Learn more and review this tool >


Best AI Rendering Tool for Modifying Images

akt="Stable Diffusion"Stable Diffusion is also a text-to-image and image-to-image model released in 2022, based primarily on diffusion techniques, which — in the case of computer generated images — include tasks such as denoising, inpainting and super resolution. Apart from generating visual renderings through text prompts, Stable Diffusion is an amazing tool for image modification. More specifically, features such as inpainting involves selecting specific portions of an existing image (layer masks) for more precise rendering editing. Adding or removing noise and depth or enhancing specific image details through a combination of text and image prompts, allow architects to create sharper quality renderings.

Learn more and review this tool >


Best AI Rendering Tool for Cohesive Visualizations

DALL·E is an AI rendering tool developed by OpenAI, a research organization renowned for releasing the famous text-to-text model, ChatGPT. DALL·E’s immediate interrelation with ChatGPT, provides a great advantage regarding the tool’s text-to-image capabilities. More specifically, DALL·E is often able to “fill in the blanks” when generating an image, without necessarily relying fully on text prompts. For example, it might suggest additional reflections and shadows to make the composition more holistic or even remain consistent to a predefined visual style, distinguishing for example between painting or photorealistic imagery. Similarly to Stable Diffusion, DALL·E is able to alter specific parts of an image through text prompts.

Learn more and review this tool >


Best AI Rendering Tool for Fine-Tuning Images

alt="Evolvelab Veras"Veras is a powerful AI-visualization app. The software can be used as a plug-in for popular architecture programs such as SketchUp, Revit and Rhinoceros, as well as a standalone web-based rendering tool. It is ideal for effortlessly manipulating BIM generated visuals, modifying their ambiance, style and lighting and even their geometry. Features such as the Geometry Override Slider, the Render Selection and the Render Same Seed allow architects to fine-tune their designs, while exploring multiple concept iterations in real-time rendering and without any 3d-modeling constraints.

Learn more and review this tool >


Best AI Rendering Tool for Early-Stage Concepts

LookXAI is an AI rendering tool that is ideal for early-concept iterations. As a highly customizable (and trainable) AI model, it allows architects to upload a series of reference images or precedents to generate initial design ideas. LookXAI includes features such as Style Adapter, Vocab Template and even a Prompt Assistant to aid architects in enhancing the quality, depth, architectural precision and style of their renderings. It also incorporates an Upscale Image feature to easily correct imperfections and enhance the quality of the image.

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Best AI Rendering Tool for Stylizing Images

mnml.ai is a revolutionary AI tool that eliminates the endless tinkering of lighting parameters in 3d visualization software. By simply uploading a rough image of the design, mnml.ai has the ability to convert it into numerous visualization styles: from day to night shots and from sketches to realistic imagery. In fact, the software has the ability to transform plain sketches into fully rendered shots and even use text prompts to control details such as colors, finishes and lighting in both exterior and interior visuals.

Learn more and review this tool >


Best AI Rendering Tool for Quick Visualizations

alt="ArkoAI"Similar to Veras, ArkoAI is also a plug-in for popular architecture software. Being, however, a cloud-based platform, its powerful rendering capabilities are ideal for quick and flexible material iterations on existing 3d models. Using simple text as well as added parameters to control the amount of effect the prompts will have on the model, architects can transform their clay renderings and shaded views into complete design proposals.

Learn more and review this tool >


How to Better Leverage AI Rendering Tools in Architecture

The following tips and considerations will help you maximize the potential of AI in architectural visualization, as well as avoiding common pitfalls associated with this fast-emerging technology.

Watch out for the elephant in the room: It is true that AI rendering software holds an impressive ability to transform ideas into very “convincing” realities. Text prompts, image-to-image models and sketch-to-rendering features enable architects to quickly reach to a finished design. Oftentimes, however, these designs may lack refinement, consideration and partially the human touch leading to proposals that may not be plausible or realistic. AI rendering tools are ideal for inspiration, experimentation and early idea representations. Nevertheless, it is important to retain creative control over an AI generated image, paying close attention to details such as material textures, lighting effects, and spatial proportions.

Beware of the plagiarism trap: It is widely known that AI technology is trained through an array of information found on the web. In the case of AI-generated renderings, architects may use preexisting images to feed into the AI tool in order to reach the desired result. Even though there have not been any clear guidelines so far on how to approach this subject, being mindful of image copyrights and licensing principles might spare users future complications and ethical considerations. In fact, using originally produced sketches and other forms of imagery to feed the AI tools may not only prove to be more ethically sustainable but also generate far more authentic and unique results.

Don’t reinvent the wheel in every rendering: Similar to any other creative process, using AI tools to produce rendered visualizations is a matter of trial and error. Writing prompts, setting AI parameters and experimenting with different image combinations are some of the skills architects need to cultivate in order to master AI visualization. Still, since the AI Spring – and as it happens in any major technological bloom – there have been numerous courses, communities and even cheat sheets for successfully operating AI technology. Architizer’s Ultimate AI Cheat Sheet for Architects and Designers! as well as its Instagram midjourneyarchitecture page provide great tips, insights and inspiration for every aspiring architect who wishes to enter the world of AI architectural visualization.

Architizer’s Tech Directory is a database of tech tools for architects — from the latest generative design and AI to rendering and visualization, 3D modeling, project management and many more. Explore the complete library of categories here.



Reference

Chaos Bridges the Gap Between Real-Time Rendering and Photorealistic Visualization
CategoriesArchitecture

Chaos Bridges the Gap Between Real-Time Rendering and Photorealistic Visualization

In a professional setting, the tasks of architectural design and visualization are often divided between different teams because they require different skills. This division helps designers achieve state-of-the-art rendering quality but sets up inherent workflow gaps between the two teams. Addressing this challenge, a powerful new update to V-Ray makes major improvements to the interface between that popular photoreal rendering tool and the real-time rendering program Enscape. Nicknamed “The Bridge”, this interface integrates design and visualization into the same workflow, allowing the transfer of materials, assets, lights, and more between design and visualization teams.

Enscape is an indispensable tool for architects because it allows them to quickly convert their work in design programs like SketchUp, Rhino, Revit, Archicad and Vectorworks into compelling visualizations. Ideal for evaluating iterations in working meetings or facilitating client decisions on the fly, it’s easy for designers to use but isn’t intended to produce the sort of photorealistic images made possible by V-Ray. Therefore, when a designer reached the point where a professional rendering was needed, a visualization team would then be tasked with recreating their Enscape scene in V-Ray from scratch, hoping to capture the designer’s intent — until now.

A new solution to this workflow problem has arrived in the form of the Bridge between Enscape and V-Ray. Starting in V-Ray 6, designers working in Enscape for SketchUp, Rhino or Revit can open their Enscape scenes in the V-Ray tab of the same program. This allows design teams to seamlessly transfer geometry, assets, lights, and materials from Enscape to V-Ray and render them with the highest levels of photorealism. By eliminating the necessity to recreate an Enscape scene in V-Ray, the Bridge is a time-saver, offering 3D artists a head start in fine-tuning and rendering projects.

Further to this, thanks to V-Ray’s latest update, the Bridge now enables users to move projects from a CAD environment (SketchUp, Rhino, Revit, Archicad or Vectorworks) to a DCC environment in programs like 3ds Max or Cinema 4D. Designers can now utilize V-Ray within these powerful applications, greatly expanding their rendering capabilities. The key lies in V-Ray’s ability to export a .vrscene file type, which allows designers working in Enscape to move their materials, lights, and entourage directly into V-Ray for 3ds Max or Cinema 4D.

The best illustration of the Bridge’s benefits can be seen in V-Ray’s hyper-realistic lighting and material rendering capabilities. When opened in V-Ray, lights defined by designers in Enscape feature a far greater degree of control over intensity, color, and physical accuracy. Materials in V-Ray likewise exhibit more realistic interaction with light than they do in Enscape, enhancing the ability to depict translucency, subsurface scattering, tinted glass surfaces and mirror surfaces. In the hands of a professional visualization artist, these capabilities make the difference between a compelling rendering and a jaw-dropping, life-like image.

Another significant advantage the Bridge offers is the ability for Enscape users to access V-Ray’s Chaos Cosmos asset library. In contrast to the Enscape Asset Library, tailored for real-time rendering, Chaos Cosmos provides assets specifically crafted to maximize realism and detail in production renders. Additionally, V-Ray’s optimized to handle scenes with large amounts of entourage — exceeding the capacity of Enscape and any host applications.

V-Ray’s sophisticated production flexibility is a further benefit the Bridge offers design teams working in Enscape. While Enscape relies solely on a GPU for rendering, V-Ray removes all hardware constraints by offering flexible rendering options utilizing together or individually the CPU and the GPU of users’ machines. It also offers cloud rendering as well as distributed rendering, and there are no limits on the final resolution of the output images. Design teams working in Enscape can easily utilize these valuable features of the Bridge by simply opening their Enscape models in V-Ray for the purposes of rendering.

With the Bridge, design and visualization are finally brought into the same workflow, saving time for everyone involved. Having removed the need to duplicate work, design teams can now benefit from the real-time rendering capabilities of Enscape without losing anything in translation to a visualization team creating final renderings in V-Ray. The unified workflow and improved collaboration the Bridge allows is a major step forward in efficiency and cooperation, drawing together key parts of the AEC industry that would otherwise remain divided.

Curious what the Bridge can do for you? Check out the latest update for yourself over on V-Ray’s website.

Reference

How to Create a Compelling Architectural Rendering Using Customizable Materials and Assets
CategoriesArchitecture

How to Create a Compelling Architectural Rendering Using Customizable Materials and Assets

Translating the architectural masterpiece in your head into a tangible visualization for clients and colleagues can feel like an impossible task if you don’t have the right tools in your arsenal. Fortunately, cutting-edge real-time rendering software like Enscape can help architects and designers bring their projects to life with breathtaking clarity and improve the speed and efficiency of your workflow. 

Exploring 3D models in real time allows you to quickly evaluate every facet of a design. At the ideation stage, it’s easy to identify mistakes, experiment with different solutions and make instant alterations. Furthermore, with new levels of customization now possible, you can transform your concepts into immersive worlds for clients, imparting a compelling, human perspective to each project. Most importantly, your design intent is crystal clear from the outset.

Here are five steps to creating stunning architectural visualizations with adjustable assets and real-time rendering software.

1. Perfect your perspective.

Like a photographer, it’s important to consider the composition of your renderings. There are a number of general rules you can follow to make your framing more powerful though these are yours to break.

The rule of thirds is an age-old principle. Dividing the frame into a three-by-three grid, this composition ensures the most important features fall along the lines or at their intersections. Alternatively, you could consider using one-, two-, or three-point perspectives anchored around crucial moments in the frame. If your scene is laden with multiple strong elements, it may be more impactful to hone in on one single focal point instead and tell that story succinctly.

If you’re an Enscape user, you have the ability to create handy presets for each view once you’ve settled on your composition. Every camera angle requires its own unique settings. In Enscape, you can link the preset to the view, so the visual settings will automatically change when you navigate through the different perspectives.

2. Plan your lighting setup.

Negotiating the balance between light and dark is key if you want to produce a realistic rendering. Think about what time of day your scene is set and examine the conditions in the real world. What position would the sun or moon be in? Depending on the orientation of any windows, where would shadows be cast and how dark would they be? Are there any surfaces light might reflect off? In Enscape, it’s possible to customize the time of day for each view to set the right mood for the scene.

For artificial lighting, consider the angle of the light, its strength and how intense shadows would be according to each particular lighting system. Extremely dark areas can lose detail and material quality, so ensure the frame’s main focal points are adequately lit. 

Enscape 3.5, the software’s newest iteration, features updates to their global illumination algorithm, including a host of changes to make the light quality in your renderings more lifelike. These include more accurate shading in mirror reflections and more realistic indirect lighting in interior scenes.

3. Customize your project materials.

Blurry and pixelated 3D textures result in lackluster visualizations. Material clarity can elevate your architectural renderings to the next level. Enscape’s Material Library offers an array of high-quality, versatile textures you can apply across interior and exterior surfaces. It’s easy to experiment with different materials and instantly swap them in and out until you arrive at the right finish. You can also import materials from other sites to expand your library. 

Textures with visual repetitions can be jarring and disrupt the illusion of realism. However, bump maps and reflections are automatically applied to materials from the Enscape Material Library to impart even more depth to your renderings. If these settings don’t align with the aesthetic you’re trying to achieve, you can use the Enscape Material Editor to customize displacement maps.

As well as the exterior and interior textures of your project, don’t neglect the other scene elements that will bring your image to life. Pay special attention to typically overlooked surfaces such as the asphalt of an adjacent road or the ripples of a lake in the background to ensure the entire composition feels palpable.

4. Utilize realistic assets.

Illustrating your renderings with the fixtures of everyday life, be it furniture, decorations, trees, vehicles and even people, can enforce your world-building and strengthen your design. Enscape’s recently released adjustable asset series offers options for you to modify assets to your liking. There are over 1,000 new 3D adjustable assets, encompassing texture alterations and variants of an item’s geometry, plus almost an infinite number of color options to choose from.

What’s more, the Enscape 3.5 update offers 93 new unique people assets to help demonstrate the functionality of your project and add a more emotive dimension to your scenes. In instances where architects and designers need specific assets, you can import your own models into the Custom Asset Library too. Check out this in-depth tutorial on harnessing Enscape’s asset library within Revit, SketchUp, Rhino, Archicad and Vectorworks.

5. Fine-tune in post-production.

When you’ve finished crafting your scenes, there may be post-production tweaks you want to make to add the finishing touches to your renderings. In Enscape, you can easily export your images and continue work in any photo editing software. You can even export different types of rendering elements so you can quickly modify a specific object or material. For example, you can export object ID, material ID and channel depth for more targeted editing. 

Enscape 3.5 also benefits from improvements to the alpha channel functionality (the alpha channel is a layer that represents an image’s degree of transparency). The alpha channel export feature allows you to take renderings with a transparent background out of Enscape and edit them externally. The recent update now enables users to export semi-transparent materials too, such as windows and glass surfaces, speeding up post-processing.

Supercharge your design communication and try Enscape’s real-time rendering software for yourself with a free 14-day trial. The Enscape plug-in is compatible with popular modeling software, including SketchUp, Revit, Rhinoceros, Archicad and Vectorworks. 

Reference

Zaha Hadid Architects’ New AI Tool Takes You From Sketch to Rendering With a Click
CategoriesArchitecture

Zaha Hadid Architects’ New AI Tool Takes You From Sketch to Rendering With a Click

The latest edition of “Architizer: The World’s Best Architecture” — a stunning, hardbound book celebrating the most inspiring contemporary architecture from around the globe — is now available. Order your copy today.  

2022 was the year AI broke through to mainstream attention. But 2023 might be the year deep learning technology begins to really change how architects work.

It should come as no surprise to anyone that Zaha Hadid Architects is behind LookX, a digital tool that allows architects to put AI to work in a meaningful way. Dubbed “the Midjourney for Architecture” by Dezeen, LookX is a software program that can take a wide variety of inputs — anything from a detailed sketch to a group of squiggly lines — and instantly transform them into high-end architectural renderings. Zaha Hadid designer Tim Fu made headlines with a Gehry-esque rendering created from a crumpled piece of paper.

Unlike Midjourney — or any other AI tool for that many — LookX was specifically trained on an architecture dataset called ArchiNet. The fact that LookX has been trained on this data sets it apart from other tools and allows its outputs to be of real use to architects.

“Because it’s trained specifically on architecture models, it has a lot more capabilities in producing finished results and resolved geometry, as opposed to what you would typically get from Midjourney or DALL-E or Stable Diffusion,” Fu told Dezeen.

In short, the program is able to quickly grasp different architectural typologies, distinguishing residential structures from commercial or public buildings. It can also fill in details that really make sense and could be useful in later phases of the design process. These outputs, in other words, are not simply impressionistic digital sketches of buildings. Their utility extends beyond the initial “wow” factor.

The LookX platform includes three sections: Generator, Model Training and Sharing Community. This last section, the social dimension, allows different models to cross-pollinate, enabling sparks of innovation to fly in unexpected directions.

In addition, the image generation is split into Render Mode, where the machine re-interprets sketches into architectural form, and Explore Mode, which allows for flexible customization. Even Render mode is more flexible than one might think; users can upload reference images to give the program visual guidelines. Something is reassuring about these features; they make it clear that using LookX does not mean handing over creative control to the machine!

As LookX is a deep learning program, its generating capabilities are constantly improving the more that it is used. That might sound eerie but it is true; the power of these kinds of programs lies in their ability to learn.

There is a certain significance to the fact that Zaha Hadid Architects is the firm to release this tool. The late Dame Zaha Hadid was well-known for her loose and impressionistic sketches. She had the remarkable ability to think in terms of large shapes and curves and then translate these general ideas into real-life buildings.

LookX will allow more architects to work like Hadid, beginning with the big picture. As a brainstorming tool, this is very exciting. We can’t wait to see what buildings result from this technology!

The latest edition of “Architizer: The World’s Best Architecture” — a stunning, hardbound book celebrating the most inspiring contemporary architecture from around the globe — is now available. Order your copy today.  



Reference

From Rendering to Reality: Morphosis’ Evolving Practice of Visualization
CategoriesArchitecture

From Rendering to Reality: Morphosis’ Evolving Practice of Visualization

The One Rendering Challenge is now part of the Architizer Vision Awards, honoring the best architectural photography, film, visualizations, drawings, models and the talented creators behind them. Winners are published in print! Start your entry >

Rendering transformed how architecture was visualized and shared. As one of the most common ways that designs are communicated to clients and the public today, these constructed images have become central to practice. Increasingly more realistic as technology has evolved, firms have been exploring diverse ways to understand the impact and potential of renderings. Now more than ever, designers and artists can make visualizations in less time and create new visions of what could be.

For interdisciplinary design practice Morphosis, the firm has made a name for itself by pushing boundaries. In their own words, the designers are “enthusiastically wondering at the future” as they test out new forms and building technologies. Founded in 1972, the firm’s work ranges in scale from residential, institutional, and civic buildings to large urban planning projects.

Like the practice itself and implied in the firm’s name, the renderings produced by Morphosis have shifted and evolved over time. However, a central theme is a blurred entourage and context, creating a sense of movement within an image. The following projects showcase renderings from the firm’s portfolio and photography of their built architecture. As a collection, they show how the practice continues to set the stage for innovation.


Orange County Museum of Art

Costa Mesa, CA, United States

Jury Winner, 2023 A+Awards, Museum

The design of the new Orange County Museum of Art addresses the need for museum space to be both flexible and functional as well as inviting and memorable. With flexible exhibition galleries, dedicated space for educational programming, and areas for public gathering, the new building was made to provide expanded access to the museum’s permanent collection and its world-class special exhibition program. The main floor is dedicated to reconfigurable open-span exhibition space, complemented by mezzanine, black-box, and jewel-box galleries that can accommodate temporary and permanent collection exhibitions spanning scales and mediums.

A spacious roof terrace, equivalent in size to 70 percent of the building’s footprint, serves as an extension of the galleries with open-air spaces that can be configured for installations, a sculpture garden, outdoor film screenings, or events. While the interaction and entrance to this terrace changed over the course of the design, later renderings more closely echo the final project. A sculptural wing hovers over the lobby atrium and creates a prominent location for the educational hall, a dynamic architectural space illuminated by a full-height window overlooking the terrace.


Perot Museum of Nature and Science

Dallas, TX, United States

Giving shape to concrete, Morphosis Architects explored the material’s potential through the Perot Museum of Nature and Science in Dallas. Built to bring a simple cube and plinth into high relief, the Perot Museum showcases a precast-concrete panel façade. As a material investigation integrating structure and formwork, the elegant cladding solution was made possible through computer aided modeling and a collaboration with Gate Precast of Hillsboro, Texas.

The Perot Museum is a showcase of versatility and technical ability. Its design creates a distinct identity for the new institution and enriches the urban environment of the emerging cultural district of Victory Park. The overall massing for the building floats a cube of galleries above a thickened landscape containing classrooms, a theater and support spaces. Breaking the solid geometry of the museum cube, a glass-encased 54-foot (16-meter) continuous flow escalator moves patrons up from the ground floor to a cantilevered platform, which is seen in both renderings of the project and the completed building.


Bloomberg Center

New York, NY, United States

Designed to become a net-zero building, The Bloomberg Center forms the heart of the Cornell Tech campus on Roosevelt Island. The Bloomberg Center was made to reflect the school’s joint goals of creativity and excellence by providing academic spaces that foster collective enterprise and collaboration. The four-story, 160,000-square-foot (14,865-square-meter) academic building is named in honor of Emma and Georgina Bloomberg in recognition of a $100-million gift from Michael Bloomberg, who was responsible for bringing Cornell Tech to New York City while serving as the city’s 108th Mayor. The four-story building is set beneath a photovoltaic canopy with a low and narrow profile framing views across the island.

One of the building’s most distinctive features is its façade, optimized to balance transparency — optimizing daylighting and exterior views — while maximizing insulation and reducing thermal bridging. As the renderings echo the building’s form, they also hint at this texture created along the building facade. Designed as a rain screen system, the outermost layer of the façade is composed of aluminum panels surfaced in an iridescent, PPG polymer coating. Viewed from afar, the aluminum panels register a continuous image that merges the river-view scenery from Cornell Tech’s Roosevelt Island location and Cornell University’s idyllic campus in Ithaca, New York.


Emerson Los Angeles

Los Angeles, CA, United States

Emerson Los Angeles has emerged as a significant landmark in Los Angeles. As a backdrop for student filmmakers, the building weaves an urban fabric of outdoor and indoor spaces together with two slender residential towers bridged by a multi-use platform. With over 180 student rooms, four faculty apartments, film and video production labs, and classrooms, the project combines both a sculptural central mass and an undulating, textured metal scrim. At over 100,000 square feet (9,290 square meters) and ten stories high, the project spurred redevelopment as part of a larger transformation in Hollywood.

As the most distinctive element of the project, the building features a custom metal panel systems manufactured by Zahner. These screens and panels were made to provide shade and privacy, and are composed of seventeen different folded aluminum components. This screen is seen in both renderings of the design, as well as in the heart of the finished building. Zahner used 3D models to produce and fabricate the curvatures. The eight-story sunscreen was made using computational scripting to determine the final geometry that would shade the internal façades.


Kolon One & Only Tower

Gangseo-gu, Seoul, South Korea

Sited in Seoul, Kolon’s new flagship research and development facility brings together researchers, leadership and designers in one location. The building combines flexible laboratory facilities with executive offices and active social spaces that encourage greater interaction and exchange across the company. The four-acre project site sits adjacent to Magok’s central park — a prominent location for what will be the district’s first major completed building. The building folds towards the park, providing passive shading to the lower floors.

Bridging the three extending laboratory wings, the building’s folding volume contains conference rooms and social spaces, augmented by flagship retail and exhibition galleries at the street level to communicate the brand’s vision to the public. A transparent ground plane extends the landscape into the interior, drawing light and movement towards an open pedestrian lane-way and grand entry. The distinctive brise-soleil system on the western façade is both a performative and symbolic feature of the building; the façade units have been parametrically shaped to balance shading and views, and are made from a GFRP formulation that uses one of Kolon’s own high-tech fabrics.


Gates Hall

Ithaca, NY, United States

The Bill & Melinda Gates Hall brings together the faculty and students of Cornell University’s Computer Science and Information Science departments. Housed within a single structure, the project was designed to facilitate collaboration and spontaneous discourse between disciplines. Projecting westward from the building, a two-story cantilever creates a dramatic canopy over the elevated Entry Plaza to establish a new visual gateway to the campus. Advanced digital modeling tools are used to map a double skin of undulating, perforated stainless steel panels, which envelop the reflective glass curtain wall on the second and third levels.

The complex patterning of the façade causes the building to appear to shift throughout the day, evening and seasons, as the sun reflects off this textural surface. The renderings of the project produced for Cornell echo the final design. Performative as well as aesthetic, the metal screen shades the building from the sun, while admitting diffuse daylight and affording exterior views. Accentuated by fritted interior glazing, active social spaces interweave with academic program to extend education beyond traditional classroom settings. Public activity is organized around a dynamic, multi-level atrium on the west side of the building, with an efficient layout of classroom, laboratories and offices to the east.

The One Rendering Challenge is now part of the Architizer Vision Awards, honoring the best architectural photography, film, visualizations, drawings, models and the talented creators behind them. Winners are published in print! Start your entry >

Reference

Rendering the Future: An Architecture of Matte Black Façades
CategoriesArchitecture

Rendering the Future: An Architecture of Matte Black Façades

The winners of this year’s A+Product Awards have been announced. Stay tuned for the year’s edition of the A+Product Awards ebook in the coming months.

We first experience architecture through a façade. Whether made with an overhang for shelter, lively colors, or clear sight lines inside, buildings with a thoughtfully designed façade invite exploration. Over time, architects have worked with builders and manufacturers to rethink cladding, glazing, and doors to shape the entry sequence and building styles. Today, this exploration continues with the design and detailing of matte façades. Through diverse material and finish choices, designers are reimagining the building envelope.

Matte façades have increased in popularity around the world and across project types. By reflecting less light, these buildings hold a strong presence and become focal points in rural and urban environments. Depending on the type of material and color, the matte finish can highlight the cladding, structure or façade system in place. These projects have a textural look and feel, inviting interaction and connection. In turn, they can also be used as a counterpoint to other colors, textures or finishes. The surfaces can contrast glazing or the interior design to delineate between the interior and exterior. Representing the integration of materials and finishes in different climates and contexts, each of the following projects explores what it means to create matte façades today.


Sauna R

Designed by Matteo Foresti, Värmdö, Sweden

Made of black granite (Negresco) and dark wood (Oak), this sauna was designed to be a camera obscura, a box drawn to shape views of the landscape. Located in the middle of Stockholm’s archipelago, a narrow pathway brings the visitors to the sauna: a black box embedded in the rocks. The matte finish can be seen both inside and as part of the structure’s façade. As the team outlines, inside is a monolithic stone bench that faces the water through a large sliding window. On the back, a thick wall contains all the services: a small kitchen hidden behind the sliding doors and a bathroom illuminated by a skylight. At night, the small sauna resembles a lighthouse, a warm and cozy space illuminated from the inside.


Textilmacher

Designed by Tillicharchitektur, Munich, Germany

Tillicharchitektur designed this building to host production and office spaces for a textile finishing and vending firm. Its iconic feature is the folded façade, which reimagines the simple cube. The matte bright surface of the anthracite pigmented concrete responds to its environment. Depending on the season, time of day, weather, and lighting, the façade continuously changes its character. In contrast to the expressive façade, the interior design leaves more space for the production process and the products in the showroom. The team explains that the limitation on few, but high class materials, is the main factor driving the interior.


LOU – Einfamilienhaus

Designed by AllesWirdGut, Lower Austria, Austria

On the fringe of the Vienna Woods sits this compact single-family house LOU. Resting on a steeply sloping site, the designers wanted the first impression to be reinforced by the matte black skin of the building. Inside, the project offers a spacious and varied living environment on staggered half-story levels. As the team notes, at each level, the house opens differently to the outside world. The main residential levels are nestled against the slope, separated from the garden only by an all around-strip of windows which allows looking and stepping out in every direction.


Four Seasons House

Designed by Joris Verhoeven Architecture, Tilburg, Netherlands

This compact wooden house was designed by architect Joris Verhoeven for himself. Located within the Drijflanen nature reserve in Tilburg, the matte building is designed to be a part of nature. With its rough black façade, it was made to fit within the context of surrounding tree trunks. The cottage house is prefabricated and constructed out of wooden cassettes filled with flax insulation. In turn, the interior of the cassettes is made of birch plywood. Other parts of the interior, such as the interior door, kitchen and stair railing, are finished in matte black, just like the exterior window frames. In this way the inside and outside of the house were made to relate to one another.


Muangthongthani Carcare

Designed by Archimontage Design Fields Sophisticated, Nonthaburi, Thailand

Located in Muang Thong Thani, this project is the expansion of a car care center. The building is located on a 3230-square feet (300-meter) plot of land, with a long and narrow plot that required an in-depth organization of the building. Since the space of the car care center was too limited, a new space was necessary for project extension. The building consists of four small containers and four large containers. The design team made the building exterior to be painted in matte black but the interior is white. The external envelope includes the west façade and the roof, which have metal sunshades to reflect sunlight and protect the building from the heat.


The Wetlands

Designed by Alain Carle Architect, Wentworth-Nord, Canada

The ‘Les Marais’ project started with the design team’s fascination for the built landscape of the empty space that characterizes North American rural areas. For this design, depending on the observer’s location in the neighboring forest, the scales of the buildings are relative. The team explains that the wetland nature of this lakeside property was preserved and then the collective landscape of the built complex was designed. A large ‘plate’ of black wood links the three structures to establish a common base, while large cutouts were made in each ‘shape’, also of black painted wood, to reveal the interior materiality of the red cedar buildings.


JianYe LanHai ZhengFeng Hotel

Designed by Lacime Architect, Xinzheng, China

Sited at the future land-air transport hub of Henan, this hotel was made as a “paradise city with national customs” in Zhengzhou. Ideas of Chinese ancient garden construction were introduced into the “south garden” that make the most important building the starting point of the entire array. Moreover, the matte building façade is presented in the shape of arc to match the main garden in the front. The team choose a range of matte-finish materials like frosted earthenware tile, matte composite aluminum-plastic sheet and brushed stainless steel. It is the first floor of the building that is composed of external matte façade built from 100,000 earthenware tiles.

The winners of this year’s A+Product Awards have been announced. Stay tuned for the year’s edition of the A+Product Awards ebook in the coming months.

Reference

Brave New World: How Real-Time Rendering Can Lead Architectural Design Into the Future
CategoriesArchitecture

Brave New World: How Real-Time Rendering Can Lead Architectural Design Into the Future

New technologies breed new behaviors, so it’s no surprise that real-time rendering software is being harnessed by some architects to create whole new design processes. Two such firms, Intelligent City and Viewport Studio, are using the real-time rendering capabilities of Enscape to produce high-quality building designs in a fraction of the time it takes with traditional working methods. Basing their workflows on AI-enabled algorithms and the experiential capabilities of virtual reality, they’ve created design processes that are more efficient, more productive, and arguably more effective than today’s typical design practices.


The Key to Low-Cost, High-Quality Urban Housing

Animation courtesy of Intelligent City

Intelligent City, a design-build firm based in Vancouver, has created a proprietary design process called Platforms for Life to develop high-quality, sustainable urban housing at low cost. Taking a tech-forward approach to architecture, Platforms for Life employs algorithms to create fully fleshed out iterations for the design of an entire building. Modifying an individual property on one iteration automatically updates all associated parameters to incorporate the change, allowing an infinite number of fully detailed design options to be generated instantaneously. When the desired iteration is reached, all required construction documentation and manufacturing instructions are created with the push of a button.

Platforms for Life achieves even greater cost and time savings by prefabricating the primary components of their buildings in a factory. Employing the precision and speed offered by the latest automated manufacturing techniques, on-site construction time of their buildings can be reduced up to 50% over fully on-site methods. Relying heavily on mass timber as a structural material and the principles of Passive House to guide their design algorithms, the Platforms for Life process results in low-cost, energy efficient buildings with minimal carbon footprint.

Monad Granville, Vancouver (concept); image courtesy of Intelligent City

Intelligent City brings Enscape into the Platforms for Life process to fine-tune their designs in real-time when collaborating with clients. “We were looking for a way to visualize the buildings quickly,” explains Intelligent City’s Computational Design Architect, Timo Tsui. “If we couldn’t keep up with the iterations of the generated designs, then we wouldn’t be able to visualize them properly for our clients.”

A simple way to do this in a collaborative working session is to pin the Enscape rendering window alongside whatever software is being used to design a building, such as Revit or Rhino. This allows a fully rendered view to be updated automatically as design modifications are being made. If something more portable is needed for a client to evaluate on their own time, then Enscape can generate an easily shareable, read-only 3D model rendered in a web browser, in addition to 360-degree panoramas, videos or still images.


Forging New Frontiers in Interior Design

Image courtesy of Viewport Studio

Viewport Studio employs Enscape’s next-generation virtual reality capabilities to take an innovative approach to creating highly detailed interior designs. Recently tasked with designing the interior of Virgin Galactic’s Spaceport America, the first commercial spaceflight facility in the world, Viewport Studio’s design team knew they had to utilize a truly groundbreaking design process to satisfy the client’s aspirations for an equally groundbreaking space.

“We were tasked with designing something that had never been designed before,” says Viewport Studio director Gautier Pelegrin. To meet the challenge, they used Enscape’s virtual reality feature as a primary design tool, conducting live sessions to view and change design elements in real-time. This workflow resulted in the design of the spaceport’s “Astrowalk”, where astronaut passengers are given a celebratory send-off by their friends and families before embarking on their journeys. A showcase experience enhanced by a mirrored ceiling covered with LED screens, Enscape’s virtual reality feature helped the design team determine if spectators could see the Astrowalk from their seats.

Image courtesy of Viewport Studio

Enscape was additionally used to determine the exact dimensions of a barista station, as well as the amount of natural light that would reach certain planters, guiding the choice of plants used in specific locations. “The virtual reality function quickly became a staple in all our meetings,” explains Pelegrin. “It helped to reduce testing iterations by at least 20 percent. It also allowed us to check the simple ergonomics of the bespoke furniture we designed, and we were confident with what we gave to the manufacturers.”

Able to integrate directly into all major design software, including Revit, SketchUp, Rhino, Archicad, and Vectorworks, the possibilities for creating your own pioneering design process with Enscape are endless. Head over to Enscape to see all its capabilities and start your free 14-day trial today.

Reference

Rendering the Future City: Designing for Extended Reality (XR)
CategoriesArchitecture

Rendering the Future City: Designing for Extended Reality (XR)

The winners of Architizer’s Fourth Annual One Drawing Challenge have been revealed! Interested in next year’s program? Subscribe to our newsletter for updates. 

Architecture has always been a process of visualizing what could be. Over the last twenty years, as we experienced the growth of immersive technologies, new forms of visualization have followed suit. The result is a diverse array of ways to imagine architecture, as well as how we can rethink design. These technologies have created a way to extend the reality that we experience, either through a complete immersion or a blend of virtual and “real” worlds. As we look to the future, design teams are embracing these ideas to establish new ways to live, work and come together.

Today, many types of immersive reality technologies and formats inform what we share, how we visualize, and what we understand. From virtual and augmented reality to mixed and extended, the possibilities have grown exponentially. In the last decade alone, companies have been finding ways to iterate on immersive design to make rapid advances. The following is a guide and explanation of these changes, as well as some ideas on how they may impact how we design and visualize our future.


Virtual Reality (VR)

 

Virtual reality (VR) has had a real impact on architecture because it allows designers to parallel the movement of people in the real world. VR is a 3D, virtual environment where users are fully immersed in a simulated reality. Usually this involves haptic touch technology, as well as a dedicated headset. Depending on the specific format, it can involve more than images, but could also include sounds or respond to user movement. Individuals can usually experience a 360-degree view of an artificial world, and at times, tune in to other senses they would experience in real life.

While the gaming and entertainment industry were early adopters of VR, it has been used across project types in architecture. The Suspension House was created by Kilograph to work with the natural environment around it, rather than fighting against it. To illustrate this relationship, their Virtual Reality experience portrays the house in nature’s many states. The user is taken on a trip through different key locations as the weather time of day changes. They created hand-sketched storyboards and a cinematic trailer rendered in real-time in Unreal Engine.


Augmented Reality (AR)

 

Unlike VR, Augmented Reality (AR) is closer to something realistic. It simulates fabricated or virtual objects in a real environment. Instead of creating a wholly immersive, new reality, it overlays images, animations, or designs onto what you’re seeing. In turn, individuals typically utilize a device like their phone or tablet to overlay these projections in real life. AR has become widely popular, especially by integrating senses like sound. Think Pokémon Go or Instagram filters, these each add a “layer” to what we are experiencing and seeing right before us. And this can be designed.

Both VR and AR can help accelerate the process of architectural visualization. Instead of taking weeks or months to create physical prototypes and models, people can more quickly create an environment or design that they want others to understand and experience. Today, firms are exploring ways they can use AR to solve design problems and make an impact on construction sites.


Mixed Reality (MR)

Mixed Reality (MR) integrates both VR and AR. It blends real and virtual worlds to create complex environments where physical and digital elements interact in real time. Here, both kinds of elements and objects are interacting with one another, and it usually requires more processing power than VR or AR. Mixed reality is gaining traction alongside wearable technology to create immersive environments in a whole new way.

A great example of MR technology is SketchUp Viewer, an app for Microsoft HoloLens, developed by SketchUp developer Trimble. With this app, architects have the means to fully immerse themselves and experience their ideas in 1:1 holographic scale models, jump-starting decision-making from inception all the way through to implementation. ‘Immersion Mode’ is the feature that gives users the abilities to inhabit their holographic models and move freely through them at any development stage.


Extended Reality (XR)

Extended reality, or XR, is widely understood to be an umbrella term for immersive technologies and design. It includes not only augmented, virtual and mixed realities, but also the integration of advancements like Artificial Intelligence (AI) and the Internet of Things (IoT). The result becomes environments that can realistically match what we are able to access in the real world. While a relatively new term, extended reality will transform the development of our cities.

Rendering of Liberland by Zaha Hadid Architects

One example that relies heavily on extended reality is the metaverse. Aiming to be multisensory, the conceptual idea of the metaverse is that it integrates sensory cues of extended reality like auditory, olfactory, haptic, and environmental. Extended reality and the metaverse utilizes OpenXR and WebXR standards. It includes motor control, perception, vision systems, head-eye systems and auditory processing.

All of these technologies are rapidly growing and being applied across entertainment, marketing, real estate, remote working, gaming and leisure, as well as architecture and design. XR can be a valuable tool in education, engaging students who face cognitive challenges or those who respond better to different learning platforms. With XR, brands can also reach new customers as they engage with products and services. As we imagine what the future holds, extended reality will not only shape how we live, but how we design and come together.

The winners of Architizer’s Fourth Annual One Drawing Challenge have been revealed! Interested in next year’s program? Subscribe to our newsletter for updates. 

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