Charcoal-based garments by Natural Material Studio and Moskal Design
CategoriesSustainable News

Materials “have so much more to give” says Bonnie Hvillum

Materials can become a much bigger part of our everyday lives and the way we see the world if people are willing to give up mass production, Natural Material Studio founder Bonnie Hvillum tells Dezeen in this interview.

Hvillum and her Copenhagen-based design and research studio have been pushing at the boundaries of what’s possible with different materials since 2018.

From charcoal-based garments to crockery made of surplus seafood shells, Natural Material Studio creates bespoke products using its own-developed biomaterials.

“Mass-produced materials are so homogenous”

“I prefer working from a ‘leftover’ kind of aspect,” explained Hvillum, whose ethos revolves around a circular approach.

“I want materials to play an active role in our way of understanding the world,” she told Dezeen. “I feel like we have become too familiar and comfortable.

“It’s become too convenient with mass production – mass-produced materials are so homogenous and so refined. Machinery textiles are just the same when they come out, there’s no variation,” the designer added.

“We’ve had an industrial process where materials have become quite neutral, in a way. I just feel like they have so much more to give and they can be part of shaping how we think, talk about and perceive the world.”

Charcoal-based garments by Natural Material Studio and Moskal Design
Natural Material Studio collaborated with fashion house Moskal Design to create charcoal-based clothing

Natural Material Studio uses a combination of simple mechanical machinery – such as a process similar to “whipping cream” when creating its biodegradable B-foam – and more manual techniques.

For example, Procel is a home-compostable, protein-based bioplastic of natural softener and pigments developed by the studio that is made into sheets using hand casting.

“It’s the handcrafted aspects that make the materials so special,” said Hvillum, referencing the random and unique patterns that emerge on the surface of the materials produced by the studio.

Shellware ceramics by Natural Material Studio
Shellware is a set of ceramics made from leftover scallop shells

Hvillum’s belief is that this approach to making things can highlight the inherent value in their materiality. Sustainable design, she said, should only be “a base point”.

“I’m more curious to talk about what these materials actually do,” she added.

“How they affect us, what they make us think and do and how they can be part of transforming the world instead of just [approaching design] with this linear thinking of replacing materials with existing ones – although of course that is also needed.”

“I needed that connection with the physical world”

Educated primarily as an interaction designer, Hvillum previously founded a consultancy called Social Design Lab.

The now-defunct company assisted professional organisations, including political parties, with “how they could think more holistically, or ‘circular’, as we call it today, in all aspects of resources including human and material resources,” according to the designer.

“I wasn’t critical of things. It was very much facilitating processes and advising and strategies and stuff. I needed that connection with the physical world,” reflected Hvillum, explaining her decision to launch Natural Material Studio.

Despite the shift, Hvillum stressed that human interaction is still at the core of her practice.

“I’m very curious about and absorbed in what we could almost call the cognitive aspects of these unconscious processes that we have in our brain. Like, why do we experience some materials in this way and others in that way?”

During the most recent edition of Milan design week, the studio showcased Brick Textiles – stretchy panels made from a combination of Procel and highly porous repurposed bricks that were classified as waste after demolition projects.

The project, which is defined by uncharacteristically “soft” bricks, proposes fresh ways of thinking about an existing resource, according to Hvillum.

Brick Textiles by Natural Material Studio
The studio also created stretchy textiles made from bricks

Hvillum is optimistic that a change in the way consumers and designers think about materials is possible.

“It’s so inspiring speaking to young people because they really see the world differently,” she said.

“These changes that we’re seeing around social equality – fluidness in terms of genders, for example – all these things are also very inspiring when we talk about design and architecture and art, because it makes us start to understand that these fields can be fluid and equal, too.”

“I feel these movements that we’re seeing on the more cultural and societal and social levels could actually inform us in ways within design and architecture – but only if we are listening.”

The photography is courtesy of Natural Material Studio.

Dezeen In Depth

If you enjoy reading Dezeen’s interviews, opinions and features, subscribe to Dezeen In Depth. Sent on the last Friday of each month, this newsletter provides a single place to read about the design and architecture stories behind the headlines.



Reference

Orbital Materials CEO Jonathan Godwin
CategoriesSustainable News

Orbital Materials combines ChatGPT with physics to invent new materials

The first materials designed by AI could be less than 18 months away, according to Orbital Materials CEO Jonathan Godwin, who aims to harness the technology to create materials to help with carbon capture.

Formerly an engineer at Google’s AI research laboratory DeepMind, Godwin founded Orbital Materials in 2022 with a vision to bring to market “transformational materials” that could “improve our ability to have sustainable and healthy lifestyles”.

The company’s first target is materials relating to carbon capture, sustainable aviation fuel and the removal of harmful chemicals from the environment.

Material science AI a blend of ChatGPT and physics

But in the long-term Godwin also plans to work on materials for architecture and design, such as lightweight alloys for cars and smart concrete.

“If we can improve our ability to design new materials, like the chips in a computer or the screens that we look at, the metals and the alloys that we use, the active materials in carbon capture systems, then we have an ability to improve human life without having to pollute the world,” he told Dezeen.

“That’s something that drives us as an organisation.”

The model Orbital Materials uses is not dissimilar to familiar AI applications such as ChatGPT and Stable Diffusion, says Godwin.

Whereas in an image generator such as Stable Diffusion, you would input natural language as a prompt and then generate an image from it, Orbital Materials inputs an instruction along the lines of “a material that has a good absorption capacity for carbon dioxide” and the algorithm generates a 3D structure that meets the criteria.

Orbital Materials CEO Jonathan Godwin
British engineer Jonathan Godwin founded Orbital Materials in 2022. Photo courtesy of Orbital Materials

Much like how image generators arrive at an image by iterating from random noise, Orbital Material’s AI starts with a random cloud of atoms that it iteratively refines until landing on a molecular structure that answers the prompt.

The difference is that when Orbital Materials trains its AI model, the system is fed extra information about physics, “adapting it” for material science, in Godwin’s words.

The datasets that the model, nicknamed Linus, has been trained on come from real experiments and quantum simulations, which work like typical simulations but on an atomic level.

Godwin says that the “hallucinations” of incorrect information that ChatGPT has been producing are not a problem for Linus, but that the analogous challenge is it is generating purely hypothetical materials that can’t be made.

“We work really hard on making sure that whatever we generate, we have a route to making,” said Godwin. “And we do that by focusing on our dataset, focusing on a number of different kinds of tools that we have to try and ensure that that is the case.”

“Big impact” on design and architecture

Godwin says he expects AI in material science to have a “big impact” on the design and architecture industries.

First, he believes it could help industries decarbonise by introducing carbon-neutral or carbon-negative materials. He gives the example of the recent development of a cement battery alternative for energy storage as a “hugely powerful” and “breakthrough” innovation of the kind that AI could generate.

Second, he believes the technology will eventually allow for the development of new materials to specification that can be manufactured at a small scale.

“Maybe you’re designing a new device, and you need a certain type of metal with a certain type of strength or certain types of characteristics,” he explained. “At the moment, it’s very difficult to design something to specification. You have a list of materials that you can use.”

“What we’re going to be able to do is create a far wider variety and actually try to bring materials to market very, very quickly.”

An area that he sees being transformed by AI-enabled developments in material science is 3D printing.

“The scale and availability and the different functional properties of things you can 3D print are going to massively improve through the use of AI-designed additive manufacturing materials,” Godwin said.

Orbit Materials to focus on creating carbon-capture solutions

However, Orbital Materials’ current focus is in sectors where Godwin believes a product can be brought to market most quickly — hence, the 18-month estimate for how long it will take the year-old start-up to launch its first product.

“You need to have early wins in order to build a company,” he says, adding that architectural and design materials can require years of testing, particularly for something structural like concrete.

Similar to how synthetic-biology labs partner with pharmaceutical companies to bring new drug discoveries to the market, Godwin envisions Orbital Materials developing a material to the proof of concept or pilot demonstration phase and then seeking an established manufacturer as a partner.

One of the areas where the start-up is focusing much of its attention now is in materials that can draw out carbon dioxide from the air and so help establish operational carbon capture and storage solutions.

“That to me is really important because we’ve got all of these exciting technologies around converting CO2 to gasoline, converting CO2 to concrete, CO2 to X, Y and Z,” he said.

“But in order for that to actually be truly carbon neutral you need a way to capture the CO2 from the environment, and at the moment we’re not doing that in sufficient scales to make those other technologies feasible or economic.”

Benefitting from AI is “a massive organisational and political challenge”

While a believer in the potential benefits of AI, Godwin is concerned that our societies are not prepared for its potential transformational impact.

Given the rate of progress in the technology, he says we need to be thinking about “what’s going to happen in the next five years” and not just the current harms in order that the potential benefits of AI — reduced working hours, a higher quality of life within planetary limits — are evenly distributed.

“When I think of technologies in the past that have hugely improved human life, the industrial revolution, it took a very long time for the benefits of that to filter down to the people affected and that’s what worries me,” Godwin said.

“To get our society to make the most of this technology in a way that brings everyone along is a massive organisational and political challenge.”

Main image by This is Engineering on Unsplash.


AItopia
Illustration by Selina Yau

AItopia

This article is part of Dezeen’s AItopia series, which explores the impact of artificial intelligence (AI) on design, architecture and humanity, both now and in the future.



Reference

Lounge designed by Lab La Bla
CategoriesSustainable News

Lab La Bla uses local stone and recycled materials for energy operator HQ

Local studio Lab La Bla sourced diabase rock from a nearby mine and created seating from MDF and recycled cork for the interior of energy company E.ON’s headquarters in Malmö, Sweden.

Lab La Bla designed the headquarters’ reception area, coat room and lounge area, while also creating furniture, sculptures and other accessories across nine floors of the 22,000-square-metre building.

The studio aimed to create a sequence of space that had variety, while taking inspiration from sources including airport terminals.

Lounge designed by Lab La Bla
The studio used recycled materials for the interiors

“Creating work for an office that houses 1,500 employees is both challenging and inspiring,” co-founders Axel Landström and Victor Isaksson Pirtti told Dezeen.

“It’s about creating spaces and functions that cater to the many while offering a mix of focus, creative and social environments, so it’s really about designing for the masses without making it boring or generic,” they added.

“There’s a current fascination about airport interiors in the studio, so for the reception area we drew from that source of inspiration.”

Reception area at E.ON
Seating was made from MDF

In the reception area, the studio created a set of sunny yellow furniture made from medium-density fibreboard (MDF) covered in nylon fiber.

“The overall project for us is sort of a reaction to dysfunctional and non-sustainable processes inherent within our industry,” the studio explained.

“For the reception area MDF and screws have been coated with repurposed nylon fiber using a technology commonly seen in the automotive industry, resulting in furniture that celebrates leftover material but without compromising on durability.”

Atrium of E.ON headquarters
A bench features a “melting” diabase stone detail

For the building’s central atrium, Lab La Bla designed an unusual bench that features a gloopy stone decoration resembling an oil spill.

This was created using diabase stone, which is famous for its blackness and was mined nearby in southern Sweden. The process of creating it was informed by its setting at an energy company headquarters.

Gloopy bench designed by Lab La Bla
Lab La Bla sourced local materials for the project

“Since electricity and magnetism are essentially two aspects of the same thing – and E.ON being an electric utility company – we thought it suitable to introduce magnetism as a modelling tool,” Landström and Isaksson Pirtti explained.

“The shape of the piece comes from dropping a lump of magnetic slime on top of a conductive material,” they added. “The slime seemingly randomly slump and drapes over a metal bar before settling in its final shape.”

Lab La Bla then scaled this shape up and hand-sculpted the shape from a single block of diabase, which was finally sandblasted and polished.

“We see this process as an adventurous exploration in making a physical representation of the invisible force that shapes our world,” Landström and Isaksson Pirtti added.

Decorative glass panel at E.ON headquarters
Mouth-blown glass panels form a three-metre-high sculpture

The studio also turned brick beams, left over from the construction of a school in Malmö in the early 1900s, into umbrella stands, and sourced mouth-blown glass panels from one of the few remaining producers of the material.

This was used, together with dichroic glass, to create a three-metre-high glass sculpture with a graphic pattern that depicts a CT-scan of a wood-fibre material.

Vase shaped in tree trunk
Glass sculptures were formed inside hollowed-out tree trunks

Lab La Bla also created decorative vases and glass sculptures using molten glass blown into tree trunks that had been hallowed by fungal decay. The trunks were sourced from E.ON’s own local heating centre.

These trunks “serve no industrial purpose, but are burnt for energy by E.ON and used for teleheating for Malmö,” the studio said.

“We borrow these tree trunks to blow glass in them, before returning them to their final purpose.”

Sofas made from cork
Lounge sofas were made from ground-down wine corks

In the headquarters’ lounge areas, the designers created modular sofas made from ground-down wine corks sourced from restaurants.

“The modular cork sofa uses a unique process where 100 per cent recycled cork is sprayed onto a foam structure, proudly incorporating signs of imperfection into the design while bringing superior durability and sustainability to your furniture,” Landström and Isaksson Pirtti said.

Glass table detail by Lab La Bla
A table has an office-style glass relief with a keyboard

To the designers, the aim of the interior design was to use disused or forgotten materials, as well as ones that were recycled and recyclable.

“We took a conscious decision of picking hyper-ordinary materials such as MDF and aluminium to pinpoint and educate people about cyclic and sustainable qualities inherent in the processes of creating these materials,” the studio said.

“We often try to celebrate the beauty and intrinsic qualities of everyday, industrial materials otherwise consigned to temporary or low-cost construction solutions,” it added.

“We wanted to design objects which require significant time and skills from craftspeople, usually reserved for expensive, rare and high-quality materials – to some of the very inexpensive and found materials that we used throughout the project.”

Lab La Bla’s designs have previously been shown at the Moving Forward exhibition at Stockholm Design Week and as part of the Metabolic Processes for Leftovers exhibition in Malmö.

The photography is by Lars Brønseth.

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

Superpop tables by Paolo Cappello for Miniforms
CategoriesSustainable News

Eight furniture pieces and products made out of sustainable materials

Dezeen Showroom: 3D-printed room dividers made from food waste and mycelium are among recent sustainably-designed products on Dezeen Showroom.

In order to address growing environmental concerns within the furniture and wider design industries, brands are opting to make their products using renewable, recyclable and reclaimed materials, and processes with circular principles in mind.

We’ve rounded up eight recently released furniture pieces made from recycled materials, including waste plastic from abandoned fishing nets, electronic waste from the tech industry and materials derived from the process of making paper.

From a bar stool made from coffee shells to a recycling bin made out of post-consumer plastic, read on to see our selection of the latest furniture designs made from sustainable materials on Dezeen Showroom.


Superpop tables by Paolo Cappello for Miniforms

Superpop tables by Paolo Cappello for Miniforms

Miniforms’ Superpop tables – created in collaboration with Italian designer Paolo Cappello – have a rounded rectangular form and a speckled finish reminiscent of terrazzo.

The pieces are made from recycled plastic, which creates the mottled pattern. They are lightweight and durable enough for use either indoors or outdoors and can be recycled further at the end of their lifespan.

Find out more about Superpop ›


Veggro collection by Interesting Times Gang and OBOS

Veggro collection by Interesting Times Gang and OBOS

Design studio Interesting Times Gang worked with cooperative homebuilder OBOS on a duo of screens called Loom and Jugoso.

Loom has a pale finish and is made from mycelium, whereas mustart-hued Jugoso is made out of orange rinds. Both are created using 3D-printing techniques and have biomorphic patterns representing the natural materials they are made from.

Find out more about Veggro ›


Eternity high stool by Space Copenhagen for Mater

Eternity high stool by Space Copenhagen for Mater

Danish furniture brand Mater has created its Eternity high stool in collaboration with designers Space Copenhagen, which is made from Matek – the brand’s patented circular waste material.

The material contains both e-waste and coffee shells leading to the stool’s characteristically dark colour. It can be upholstered with Kvadrat’s Re-wool material,  which is made from 45 per cent recycled wool.

Find out more about Eternity ›


Alted H01 tile by Berta Julià Sala for Alted Materials

Alted H01 tiles by Berta Julià Sala for Alted Materials

Spanish brand Alted Materials worked with product designer Berta Julià Sala on a range of tiles made from cellulose waste, a byproduct of the paper industry. The tiles are also coated with a water-based sealant distilled from waste vegetables.

Alted H01 tiles come in three grooved patterns and various earthy colourways. The material allows the tiles to be recycled circularly, preventing material from ending up in landfill as is the case with traditional construction materials.

Find out more about Alted H01 ›


Matt black Ovetto bin in kitchen

Ovetto waste bin by Gianluca Soldi for SoldiDesign

Italian design brand SoldiDesign has released an egg-shaped waste bin named Ovetto that is both made from recycled materials and is designed to contain them in different compartments for easy disposal.

The bins are made from post-consumer recycled ABS and polypropylene in different amounts depending on its colour. The matt black Ovetto bin is made from 100 per cent recycled content.

Find out more about Ovetto ›


Wooden coffee table in living room

Centenniale coffee table by Joanna Laajisto for Nikari

The Centenniale coffee table was made for Finnish brand Nikari by architect and designer Joanna Laajisto out of 100-year-old wood.

The table’s angular top is supported by contrasting chunky, rounded legs. It can be made from solid oak or ash wood, and emphasises the importance of utilising existing renewable materials.

Find out more about Centenniale ›


Black task chair by Humanscale

Liberty Ocean chair by Humanscale

Office furniture brand Humanscale used up to one kilogram of plastic derived from disused fishing nets for its Liberty Ocean task chair.

The chair represents the next evolution of the brand’s classic Liberty chairs. It shares the same ergonomic technology and comfort as the other chairs in Humanscale’s catalog but is made from sustainably-conscious materials.

Find out more about Liberty Ocean ›


Stack of earthy coloured materials on outdoor table with trees in background

Gaia recycled upholstery fabric collection by Skopos

British brand Skopos has created a collection of materials made out of recycled textiles and post-consumer plastic waste.

Gaia mimics the appearance of textured wool boucle and comes in a selection of 21 earthy colourways.

Find out more about Gaia ›

Dezeen Showroom

Dezeen Showroom offers an affordable space for brands to launch new products and showcase their designers and projects to Dezeen’s huge global audience. For more details email [email protected].

Dezeen Showroom is an example of partnership content on Dezeen. Find out more about partnership content here.

Reference

Banquette seating with wool wall hanging above in Donna restaurant
CategoriesInterior Design

Michael Groth uses natural and recycled materials inside Donna restaurant

New York designer Michael Groth collaborated with a Moroccan artisan cooperative to create the wall hangings for this worker-owned bar and restaurant in the West Village.

The opening of Donna‘s new location on Cornelia Street follows the closure of its Williamsburg spot in December 2020 as a result of the coronavirus pandemic.

Banquette seating with wool wall hanging above in Donna restaurant
Michael Groth has designed the new Donna outpost in New York

Serving a pan-Latin menu with Mediterranean influences and Filipino-inspired cocktails, the restaurant and bar is now a worker-owned cooperative, with original owner Leif Young Huckman acting as an advisor.

To reflect this shift, Brooklyn-based Groth aimed to imbue the design of the new outpost with references to the previous location while nodding to Donna’s revised business model.

Bar area with earth-toned plaster walls
Earth-toned limewash plaster was applied to the walls in geometric patterns

He drew influences from the constructivist art movements of Latin America in the 20th century and particularly the work of artists Sandu Darie, Pedro Alvarez and Lygia Clark.

Donna is decorated with earth-toned limewash plaster, applied to the walls in geometric patterns that echo the brand’s visual identity.

Circular light fixture above the dining area  in Donna restaurant
Groth created wall hangings in collaboration with artisan cooperative The Anou

Exposed brickwork is painted white, forming a plain backdrop for the circular wool wall hangings that Groth created in collaboration with Moroccan artisan cooperative The Anou.

These help to dampen the acoustics while lime plaster assists in regulating humidity, according to Groth.

The tables are crafted from reclaimed Douglas fir flooring and stained plywood was used to build the banquette seating that wraps the perimeter.

Bar-back shelving and floors were repurposed from the unit’s previous tenant, while the bar tops were fabricated by Brooklyn Stone and Tile – another worker-owned cooperative.

Reclaimed Douglas fir tables and stained plywood banquettes
Tables are crafted from reclaimed Douglas fir

“The use of any new materials was limited to those that are natural and biodegradable, keeping in mind the holistic effects of resource extraction, human health and equity, and circular material cycles,” the Donna team said.

Pendants lights above the bar have shades made from mushroom mycelium, which according to the team presents “an environmentally holistic approach to material creation that poetically reflects Donna’s equitable business model”.

Bar with mycelium pendant lights suspended above  in Donna restaurant
The pendant lights above the bar feature mycelium shades

New York City’s dining scene was upheaved during the pandemic, with many eating and drinking establishments forced to either adapt or shutter.

As a result, sidewalk dining shelters sprung up across the city, as documented in these photographs by John Tymkiw.

The photography is by Nicholas Ruiz.

Reference

Creating circular raw materials by upcycling tires
CategoriesSustainable News

Creating circular raw materials by upcycling tires

Spotted: According to a 2021 study, about 1.5 billion tyres end up as waste every year. But Polish company Contec has a better idea than letting tyres go to landfill, however, and is treating used tyres as a source of valuable raw materials.

Contec uses pyrolysis to break down the vulcanised rubber in the tyres. Pyrolysis is a thermochemical process in which the shredded tyres are heated to temperatures between 400-700 degrees Celsius in an oxygen-free atmosphere. This breaks down large, vulcanised rubber molecules into smaller compounds to produce soot, gas, oil, and other chemicals.

By adapting this process, Contec is able to recover rubber and steel for reuse in new tyres, oil for use in the chemical and refining industry, and carbon black, which is used as a pigment and a filler to the mechanical strength of rubber compounds used in tyre manufacture.

Although still in the early stages, Contec has developed its process to a commercial capacity. The company recently secured zł 70 million (around €15.6 million) in funding from investors HiTech ASI, Pruszyński Sp. z o.o. and Mariusz Machciński. The funding will be used to the processing capacity of their plant from 10,000 to 33,000 tonnes of used tyres a year.

Contec is not alone in the search for a more sustainable way to manufacture and recycle tyres. In the archive, Springwise has also spotted innovations such as a bio-based carbon black and tyres made from recycled plastic.

Written By: Lisa Magloff

Reference

These Terracotta Experts Are Redefining the Architectural Possibilities of an Ancient Material
CategoriesArchitecture

These Terracotta Experts Are Redefining the Architectural Possibilities of an Ancient Material

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 >

Great architecture marries function with aesthetics. Often, the expression of this negotiation between form and use plays out in materials, the many assemblies and combinations that define what we experience. Terracotta is a clay-based ceramic that can be glazed and has been used throughout history. But it wasn’t until the 19th century that the material began gaining new architectural applications outside roofing. With varying colors and textures depending on the type of clay, terracotta is now produced in a vast array of shapes, styles and varieties.

Shildan has become known for its rainscreens and terracotta products, which bring iconic and energy-efficient building façades to life. With over 300 institutional projects, they specialize in designing and engineering systems for high-performing facades. While a large majority of contemporary terracotta buildings include cultural institutions and arts facilities, the material can also be used in residential and commercial construction. Durable as it is beautiful, Shildan’s terracotta is used in contemporary architecture to redefine building envelopes in both rainscreens and cladding. Each of the following projects explores how Shildan rethinks terracotta and its application in diverse building types.


Mercy Corps Global Headquarters

By Hacker, Portland, OR, United States

Designed to teach and encourage visitors to engage with contemporary issues, the Mercy Corps building was built to exemplify a sustainable, community-focused approach. Doubling the size of the historic Portland Packer-Scott Building, the landmark project combined a green roof, with resource-friendly landscaping and a glass and terracotta envelope.

Certified LEED Platinum, the project uses the LONGOTON Terracotta Rainscreen Panels with extruded, double leaf, 1.6 inch (40 mm) panels. The panel has increased strength from a chain of internal I-beam supports. The panels were chosen because of their flexibility in being able to be incorporated in both horizontal and vertical support systems, as well as a flexible orientation in layout. The headquarters also includes the Action Center — a “window to the world” — featuring interactive exhibits that educate visitors about the changing nature of relief and development work.


NASA Langley Research Center – Headquarters Building

By AECOM, Hampton, VA, United States

For NASA’s Langley Research Center, a $23 million, 72,000-square foot administrative office building, AECOM provided full bridging architectural and engineering services for the headquarters. The building is conceptualized as a parallelogram on a triangular site with a two-sided entry at ground level linked by a continuous lobby. The southern entrance plaza links both through the lobby and around the building to the north plaza, which is oriented to the heart of the campus.

The headquarters building was required to achieve LEED-NC Gold certification but achieved LEED-NC Platinum certification, focusing on the reduction of operating and maintenance costs, energy efficiency, comfort for the occupants, and a low environmental impact. The project features the Shildan/Moeding ALPHATON Panel, an extruded, double leaf, 30 mm (1.18”) terracotta panel. The ALPHATON panels can be incorporated in both horizontal and vertical support systems, and they were used in the Langley project to for durability and to denote the change in building form.


NOAA Southwest Fisheries Science Center

By Multistudio, San Diego, CA, United States

For the design of the National Oceanic and Atmospheric Administration (NOAA)’s Southwest Fisheries building, the team partnered with the University of California San Diego to design a facility that would pay homage to a world-class site and create a sustainable building for environmental stewards of the ocean.

The Southwest Fisheries building takes advantage of the local microclimate while respecting the ever changing needs of the research scientists. The new facility continues the California-style legacy of an open architectural environment, and courtyards encourage interactions among researchers from different disciplines. Terracotta sun shades, green roofs, photo-voltaic panels, and a state-of-the-art 528,000 gallon ocean technology tank help this building rethink scientific building design.


UCLA Evelyn & Mo Ostin Music Center

By Kevin Daly Architects, Los Angeles, CA, United States

For this music center in Los Angeles ,the project includes a high-tech recording studio, spaces for rehearsal and teaching, a café and social space for students, and an Internet-based music production center. Music industry executive and philanthropist Morris “Mo” Ostin donated $10 million to UCLA for the music facility, now known as the Evelyn and Mo Ostin Music Center. Adjacent to the Schoenberg Music Building and the Inverted Fountain, the new structures provide faculty and students access to the latest advances in music technology, research and technology.

The design utilized Shildan’s Terracotta Baguette Sunscreen to provide subtle variation and add texture to a building. This was combined with the ALPHATON terracotta panel. Kevin Daly Architects utilized these materials and assemblies, as well as proposed a series of additions, subtractions, and modifications to the existing facilities that transformed the building into a dynamic complex that supports a new vision for music education at UCLA.


Lesley University, Lunder Arts Center

By Bruner/Cott & Associates, Inc., MA, United States

The Lunder Arts Center at Lesley was designed to be the new heart of the College of Art and Design. A center for art teaching and making, the campus is a crossroads for academic, artistic, and neighborhood communities. The terra-cotta and glass design foregrounds the site’s important historic church, initiating a dialog between 19th century religious and 21st century educational icons. An art gallery in the new glass building and a library in the historic church anchor the building at both ends; both are open to the public.

The complex is a transition from Porter Square’s large-scale industrial buildings to the smaller, finer-scaled residences and stores along the avenue. The scale and detail of the historic church inform the new building; terra cotta reflects back neighboring brick and clapboard. Registered for LEED Gold, the complex exceeds Cambridge’s strict new Stretch Energy Code. The project team used both the ALPHATON terracotta panel system, as well as Shildan’s Patinated Terracotta Rainscreen Panels.


Stephen M. Ross School of Business

By Kohn Pedersen Fox Associates, Ann Arbor, MI, United States

Key to the success of the design of the new Stephen M. Ross School building was relating the typical tiered classroom to group study spaces. To do so, the design team developed a model for early site planning studies to address the pedagogical needs of the school, which focused on assessing the capacity of existing buildings to accommodate new teaching spaces. Equally important was a sense of local identity, both for the building on the university campus and for distinct groups within the school.

Respect for the language and history of nearby buildings on campus had to be balanced with the goal of projecting a forward-looking image for the school. The new building meets these challenges set by the Ross School with an organization of elements around a central winter garden which opens directly to the street, providing a distinctive presence and a new “front door” for the school on the University of Michigan campus. Through both phases, glass, terracotta, and warm sandstone define the material vocabulary of the building. The mixture of textures offers smooth glass that is clear and fritted, machined terracotta, split-faced sandstone and water-jet finished granite to provide a contrast in color, texture and feel. Terracotta is the building’s most prominent material.

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Reference

Low Energy, Big Views: OKALUX Reimagines Insulated Glazing
CategoriesArchitecture

Low Energy, Big Views: OKALUX Reimagines Insulated Glazing

Architizer’s new image-heavy daily newsletter, The Plug, is easy on the eyes, giving readers a quick jolt of inspiration to supercharge their days. Plug in to the latest design discussions by subscribing. 

Insulated glazing revolutionized architecture as we know it. Throughout history, windows let in light but also cold and heat. In the 1930s, a refrigeration engineer created the Thermopane window, featuring two panes of glass with a layer of air in between, it could better control temperature. From that moment on, architects began to utilize larger glazing, eventually creating the modern glass skyscrapers we see today.

Known for innovations in architecture and materials, OKALUX has been a leader in the glass manufacturing industry for more than 50 years. OKALUX originated from Heinrich Otto KG, a weaving and textile spinning company based in the South of Germany during the 1960s. Now headquartered in Marktheidenfeld, Germany, with an office in New York, OKALUX continues to redefine materials for a wide range of applications. They continue to develop and supply insulating glass for daylighting, shading and insulation. Featuring products that enhance the efficiency of facades and interiors, the following projects represent OKALUX glazing around the world. Together, they showcase how glazing can help make the most of light, reducing energy consumption and creating more comfortable places to live, work and unwind.


Des Moines Library

Designed by David Chipperfield Architects, Des Moines, IA, United States

As the centerpiece of the Des Moines Western Gateway Park urban renewal project, this public library was sited between the center of the city and a newly designed public park. As well as library facilities, the building contains a flexible activity space, education facilities, children’s play areas, a conference wing and a cafeteria. In plan, it responds to the orthogonal nature of the city blocks to the east while stretching out into the park to the west. This plan is extruded vertically with a glass-metal skin, which gives the building its distinctive appearance.

The triple-glazed panels incorporate a sheet of expanded copper mesh between the outer panes. The three-dimensional quality of the copper mesh reduces glare and solar gain, ensuring that views from the inside into the park are maintained at all times. The project uses OKATECH, an insulated glass unit. A wide variety of metal meshes can be placed within the glass cavity for a distinctive aesthetic. At the same time, the mesh faces the sun and screens out high solar gain.


Halley VI Antarctic Research Station

Designed by Hugh Broughton Architects and AECOM, Antarctica

Harkening back to the beginning of insulated glazing itself, the Halley VI Antarctic Research Station was designed for polar research. As the world’s first re-locatable research facility, it was constructed by Galliford Try for the British Antarctic Survey (BAS). The project aimed to demonstrate ground-breaking architecture characterized by a compelling concept, but also a structure that’s executed with careful attention to detail and coordination.

As the team explains, the Antarctic Research Station sought to push the boundaries of design in a life critical environment. The designers created a beacon for sustainable living in the Polar Regions to draw attention to some of the most significant science conducted on our planet. The central module accommodates the majority of the stations social areas; it consists of double height space with a large east-facing window made of OKAGEL. The insulating glass system features an inter-pane cavity filled with translucent Nanogel, a special noncrystalline solid.


Damesalen

Designed by MIKKELSEN Architects, Copenhagen, Denmark

Extending an existing university gymnastic hall with a testing laboratory, the Damesal project was designed with a new building on top. The project offered an opportunity to explore an architectural concept where the geometry of the additional floor is designed with a simple box shape in glass. The architectural and functional variation happens as the glass façade responds to the program and functions within the building. The building’s envelope embodies design and performance as a collaboration between the architect and the supplier of the customized glass solution.

Working closely with Dow Corning led to a strategy that deals with the local energy frame, and at the same time takes orientation and solar exposure into account. Both horizontal and vertical layouts were studied and calculated, as well as solutions integrating OKALUX components redirecting daylight while creating a level of shading. By positioning an insulating material in the cavity of the triple glazed units, there was an opportunity to experience the same material inside and outside.


Greenpoint EMS Station

Designed by Michielli + Wyetzner Architects, Brooklyn, NY, United States

The Greenpoint Emergency Medical Service (EMS) Station was designed as a two-story facility that supports FDNY ambulance crews and vehicles. The project was made with a strong, distinctive form occupying a prominent site in the rapidly developing neighborhood. The station’s requirements led to a four-part division of the facility. Because the space for housing vehicles called for a higher ceiling height than the rest of station, one side is taller than the other. This change organizes the building’s functions.

The first floor’s different ceiling heights create different levels at the second floor and that shift in levels repeats at the roof line. This shift and programmatic division is marked with a skylight extending from the front to the back of the building. The 90-foot-long, second-story translucent glass wall appears to float above the ground and contributes to the building’s strong identity. This works with the transparent staircase by OXALUX that connects the entrance to the second floor. It is framed by a glass façade with OKATECH Expanded Mesh. The aluminum inserts act as a design element while providing effective sun and glare protection.


David H. Koch Center, New York-Presbyterian Hospital

Designed by Pei Cobb Freed & Partners, New York, NY, United States

The Koch Center was designed to provide advanced integrative healthcare and complex outpatient services. Patient-centered and family-centered care is at the forefront of the building’s medical program, announced by a triple-height lobby that offers respite from the surrounding streets. Infusion and radiation oncology areas, as well as diagnostic imaging, typically found in basement areas, are located on upper floors. This gives patients and staff the benefit of natural light.

Functional and clinical program areas are set back from the building perimeter, so patients and families travel along light-filled corridors. This strategy also gives the curtain wall a consistent level of opacity across the facade, whose appearance subtly shifts in response to the changing light throughout the day. The curtain wall owes its rich architectural character to the OKALUX wood screen inserted into its triple-glazed assembly — the first such application on this scale — and to the undulating frit pattern applied to the inner surface of the outer pane.


Cité de l’Ocean et du Surf

Designed by Steven Holl Architects, Avenue de la Plage, Biarritz, France

SHA designed the Cité de l’Océan et du Surf museum to raise awareness of oceanic issues and explore educational and scientific aspects of the surf and sea. Centered around leisure, science, and ecology, the project was made in collaboration with Solange Fabião. The design includes the museum, exhibition areas, and a plaza, within a larger master plan. The building form derives from the spatial concept “under the sky”/“under the sea”.

A concave “under the sky” shape creates a central gathering plaza, open to sky and sea, with the horizon in the distance. The convex structural ceiling forms the “under the sea” exhibition spaces. This concept generates a unique profile and form for the building, and through its insertion and efficient site utilization, the project integrates seamlessly into the surrounding landscape. The project utilized KAPILUX by OKALUX, an insulating glass which incorporates a capillary slab within the glass cavity. This capillary slab is comprised of honeycombed, clear or white tubes.

Architizer’s new image-heavy daily newsletter, The Plug, is easy on the eyes, giving readers a quick jolt of inspiration to supercharge their days. Plug in to the latest design discussions by subscribing. 

Reference

Perforated metal wall panels ImageWall by Zahner
CategoriesArchitecture

An Architect’s Guide To: Graphic Perforated Metal Panels

Architectural innovation and creativity go hand in hand. Designers are constantly seeking new ways to push boundaries, challenge norms, and create buildings that resonate with places and people. One material that is increasingly being harnessed to this end is perforated metal, with a multitude of high-tech systems now available to architects looking for customizable wall and façade solutions.

One such example is the ImageWall system by Zahner, a renowned engineering and fabrication company with a long-standing reputation for its work with architects. Developed specifically for perforated metal panels, it offers a range of diverse qualities for projects across typologies and climates.

Perforated metal wall panels ImageWall by ZahnerZahner became known for advanced metal surfaces and systems with both functional and ornamental forms. With ImageWall, Zahner has created a system that offers design versatility to make immersive experiences. With its accessible design tools, affordability, and wide range of applications, the perforated metal panel system empowers designers and architects to bring their visions to life.

Whether used in commercial, hospitality, retail, or residential settings, this material provides a customizable canvas for integrating backlighting, materials, and graphics. In this guide, we’ll explore the creative potential of perforated metal panel systems like ImageWall, from the design process to technical detailing and application.


Conceptualization: Pushing the Boundaries of Design

Perforated metal wall panels animation ImageWall by ZahnerOne of the most remarkable aspects of the ImageWall system is its accessibility to designers. Gone are the days of tedious back-and-forth communication. With this system, designers can now conceptualize and design directly within an intuitive online visualizer tool on the Zahner website.

This streamlines the design process and empowers architects to bring their visions to life more efficiently than ever before. The accessibility provided by the system fosters a greater sense of creative freedom, allowing designers to experiment, iterate, and explore a multitude of design options.

Design With ImageWall

Recently, Zahner Labs has further developed the system with ImageLines — an additional customization for generating perforated images. As the team explains, perforations are positioned by an array of customizable lines or curves, while perforation size is driven by a source image. Try it out; it’s easy to upload an image to the configurator and see how ImageLines takes perforated façades to the next level.


Technical Details: Streamlined Installation and Pre-Engineered Elements

The ImageWall perforated metal panels not only look beautiful, but also allow for more streamlined detailing. Through the use of pre-engineered elements and easy-install systems, the cost and lead times are significantly reduced compared to traditional custom solutions. This makes affordability a key advantage offered by Zahner’s system.

Their product also allows clients with tighter budgets to benefit from the company’s reputation for quality craftsmanship and design expertise. In turn, the evolution from custom projects to a pre-engineered product demonstrates Zahner’s commitment to making cutting-edge design accessible to a wider audience.

Download ImageWall Details

Perforated metal wall panels ImageWall by ZahnerFrom sleek and modern metals like stainless steel and aluminum to warm and inviting materials like pre-weathered weathering steel and copper, ImageWall provides architects and designers with a wide selection of options to suit their desired aesthetic.

Additionally, the system can incorporate other materials such as glass, ceramics, or options like recycled materials, ensuring that each project can be uniquely tailored to meet the specific design requirements and desired visual impact. The versatility in material choices offered enables the creation of customized architectural elements that seamlessly integrate into a design.


Applications: Versatility Across Architectural Typologies

At its heart, Zahner’s system has wide-ranging applications across architectural typologies. From commercial buildings to hospitality spaces, retail environments to multi-unit residential common areas, ImageWall seamlessly integrates with other building systems, structures, and assemblies.

This adaptability makes it a valuable tool for architects and designers working on a diverse range of projects. Whether it’s an eye-catching façade for a high-end hotel, an immersive retail environment, or a statement piece in a public space, the system offers endless possibilities for enhancing the appeal of a structure, entry or interior.


Creative Possibilities: Enhancing Design with Light, Materials, and Graphics

ImageWall offers a myriad of creative possibilities, including lighting options, material choices, and graphic integration. Backlighting adds a whole new dimension to architectural design, bringing depth, texture, and visual interest to spaces.

Perforated metal wall panels ImageWall by ZahnerWith a vast array of materials to choose from, architects can find the perfect match for their desired aesthetic, whether it be sleek and modern or warm and organic. The graphic options also enable the integration of custom patterns, logos, or artwork, allowing architects to create truly unique and memorable spaces that leave a lasting impression.


Case Studies: Showcasing the Power of ImageWall

To appreciate the capabilities of perforated metal panels, there are many noteworthy case studies. For example, the ImageWall system was employed only a short walk from Canada’s Parliament buildings in Ottawa, Ontario, where the team of B+H Architects and Morguard collaborated with Zahner to enhance the experience of entering their office complex at 350 Sparks. The installation of custom perforated wall art showcases the journey along the Ottawa River adjacent to Parliament Hill. Zahner supplied 1,563 visible square feet of aluminum panels and associated sub-framing for the installation.

Zahner also collaborated on the Legacy Pavilion for The Equal Justice Initiative. The Pavilion, designed by Williams Blackstock Architects, is the EJI Museum campus’ new building. Zahner engineered and fabricated the custom Angel Hair stainless steel that clads the exterior of the building, which depicts the iconic images of several local civil rights activists that inspire hope for equal justice. In a similar way, two ImageWall murals clad the east and north sides of 1256 Penn Ave, featuring individual portrait panels of renowned local civil rights activists that helped shape the culture of Minneapolis.

These case studies demonstrate how Zahner’s perforated metal panel system can be utilized by architects to enhance their designs. Its adaptability, material options, and creative possibilities have allowed architects to push boundaries and transform their visions into new landmarks.

Explore More Projects

ImageWall represents the evolution of architectural solutions, bridging the gap between visionary concepts and practical implementation. Its accessibility to designers, affordability, wide range of applications, and design potential make it a versatile and valuable tool for architects and designers alike.

As Zahner continues to push boundaries and redefine what is possible in architectural design, the system stands as a testament to their ability to transform visionary concepts into innovative architecture products and systems.

Learn more about ImageWall here, start designing your own custom perforated panel here, and reach out to Zahner’s specialists about your next project here.

Reference