Non-Linear Chronologies: 7 Chinese Firms Designing Architecture Against the March of Time
CategoriesArchitecture

Non-Linear Chronologies: 7 Chinese Firms Designing Architecture Against the March of Time

Non-Linear Chronologies: 7 Chinese Firms Designing Architecture Against the March of Time

Architizer’s 12th Annual A+Awards are officially underway! Sign up for key program updates and prepare your submission ahead of the Main Entry Deadline on December 15th.  

Can a building exist simultaneously in the past, present and future? Time-defying architecture is a groundbreaking movement that says, yes, it can. The approach, more than a stylistic exercise, challenges the conventional linear approach of architectural history, integrating eras seemingly seamlessly through a singular design.

Across China, this architectural philosophy is gaining remarkable traction, reflecting a unique cultural junction of reverence and rapid modernization. Chinese architecture firms are at the forefront of this movement, driven by deeply engrained historical consciousness and a drive for global architectural leadership. This fusion of ancient heritage with futuristic vision highlights a unique approach to preserving cultural identity while embracing the technological revolution.

Key to the practice lies in historical knowledge and a precise application of it alongside the technological advancements of the modern world – architects must adeptly navigate between eras, employing techniques from Brutalism to biomimicry, with a sensitivity that avoids pastiche. The seven A+Award winners highlighted showcase innovative structures and materials that have created spaces that are both forward-thinking and multi-layered in time.


Bache Community Center

By DEDANG DESIGN, Suzhou, China.

Jury Award Winner, 11th Annual A+Awards, Community Centers

Bache Community Center by DEDANG DESIGN, Suzhou, China. Photographs by Dedang Design

The Bache Community Center is a modern building located in Suzhou, designed by DEDANG DESIGN. The center is situated in the old street of Bache, near the historic Grand Canal and is part of a micro-renewal project which aims to revitalize the area in anticipation of the new Soochow University campus.

The building successfully combines contemporary design with a deep sense of heritage and place, with the idea behind the design being to blend the old with the new. Using a “column-free” design, the center appears to “float” above the ground, creating an open and airy space that contrasts with the surrounding cramped quarters of the old street. In a bid to respect the heritage of the site the center has a courtyard that is raised and sunken, surrounded by old bricks, which offers a communal space while incorporating a contemporary architectural language. A ginkgo tree, which is a symbol of life and connects the building to the changing seasons, was included in the atrium.


PUSHINE

By Chongqing Qimo Architectural Design Consulting, Chongqing, China.

Jury Award Winner, 11th Annual A+Awards, Hotels and Resorts

PUSHINE by Chongqing Qimo Architectural Design Consulting, Chongqing, China

PUSHINE, a stunning resort by Chongqing Qimo Architectural Design Consulting Co., Ltd., is located in the peaceful Jinfo Mountain area of Nanchuan District, Chongqing. Completed in 2021, it is a modern hideaway that incorporates ancient Buddhist and Taoist principles of Zen. The hotel offers a contemporary escape, but it pays homage to age-old concepts and creating an environment that is ideal for rest and contemplation.

The flow of the mountain stream inspires the design of the hotel. It includes cottages and bridges set at different elevations, building a connection between architecture and the natural landscape. PUSHINE is a modern retreat that is a seamless blend of contemporary resort architecture with traditional Chinese philosophy that finds a harmonious balance, offering visitors a tranquil space to experience a profound sense of mental clarity and peace.


 


Chenjiagou “Impression Tai Chi” Theatre

By Architectural Design & Research Institute of Tsinghua University, Jiaozuo, China

Jury Award Winner, 11th Annual A+Awards, Hall / Theater

Chenjiagou “Impression Tai Chi” Theatre by Architectural Design & Research Institute of Tsinghua University., Jiaozuo, China. Photographs by Zhan Changheng

The “Impression Tai Chi” Theatre is located in Chenjiagou, which is considered the birthplace of Chinese Tai Chi Chuan. Designed by the Architectural Design & Research Institute of Tsinghua University Co., LTD the theater can accommodate up to 1200 people and is a testament to the preservation of natural landscape.

The theatre has a unique mirrored stainless steel facade that reflects the sky, creating a visually appealing connection with the environment without interfering with the visual narrative of the landscape. An annex inspired by traditional Chinese courtyards is constructed using rubble concrete and extends to the exterior, where the natural terrain is followed. Featuring grassy slopes on the roof and surroundings, the theatre design creates a “3D park” that adds value to the guest experience and honors the natural location of the building. It is a prime example of architecture that works with its surroundings, defying traditional notions of architecture to allow for harmonious coexistence.


Free Space with Wood

By Fan Architectural Firm (FANAF), Nanjing, China

Jury Award Winner, 11th Annual A+Awards, Showrooms

Free Space with Wood by Fan Architectural Firm (FANAF), Nanjing, China. Photographs by ingallery Jin Xiaowen.

The “Free Space with Wood” commercial showroom in Nanjing was designed by Fan Architectural Firm (FANAF) in 2022. The project is a fine example of the importance of preserving historical elements in modern design. The focal point of the space is a restored red brick wall, traditional to historical Chinese architecture, that connects the past with the present.

The showroom is divided into two courtyards using wooden elements and frameless glass to blend the interior and exterior spaces. The entrance courtyard merges indoors and outdoors with a black box, as it integrates the vibrancy of the city. The traditionally inspired internal courtyard features a wooden ceiling that extends outward and a C-shaped teahouse, creating a peaceful atmosphere.

FANAF’s design approach focuses on preserving historical integrity with minimal intervention and maximum preservation while adding contemporary functionality. The design creates a dynamic yet respectful dialogue between old and new.


The Oatmeal Factory

By JSPA Design, Ningwu County, Xinzhou, China

Jury and Popular Choice Award Winner, 11th Annual A+Awards, Factories & Warehouses

The Oatmeal Factory by JSPA Design, Ningwu County, Xinzhou, China. Photographs by Schran Images

The Oatmeal Factory in Ningwu County , built in 2022 by JSPA Design, is a groundbreaking industrial facility that rethinks what a factory can be. Rather than being a muted and utilitarian space, the factory incorporates elements of nature and sensory experience into its design, creating a space that defies traditional industrial architecture.

The factory is divided into two levels. The lower level is made up of brick walls and houses the technical spaces, which is a tribute to local building traditions. The upper level is a modern concrete volume designed for public spaces. By incorporating patios and gardens, the factory introduces natural light and creates a sense of openness that is not usually found in traditional factories.

By blending traditional brickwork with modern concrete, the factory creates a conversation between past and present. The Oatmeal Factory is an innovative blend of industry and nature, reimagining the role and form of a factory in a contemporary context.


Chongqing Shibati Traditional Style Area

By Beijing AN-Design Architects, Chongqing, China

Jury Award Winner, 11th Annual A+Awards, Urban & Masterplan

Recently revitalized by Beijing AN-Design Architects, the Chongqing Shibati Traditional Style Area represents the perfect blend of modern technology and traditional spaces. Shibati is located in the old city of Chongqing and is known for its ancient stairway and deep cultural roots dating back to the Ming and Qing Dynasties. The renovation project, covering over one million square feet, was guided by the principle of protecting and inheriting Shibati’s core values. The design retained the original urban layout of “seven streets and six lanes” and preserved the complex elevation changes characteristic of the site.

The restoration process was meticulous and cultural relics, historical buildings, cliffs, stairways and trees that define the mountain city were all restored. Elements like telegraph poles and iron railings were also restored to maintain historical continuity. Modern features were carefully integrated using original styles, techniques and materials. This approach created a seamless blend of old and new, ensuring that the Shibati area remains a living and breathing part of Chongqing’s urban fabric. It is a place where traditional charm coexists with modern functionality.


Stations of Shanghai Metro Line 18

By Shanghai Rail Transit Line 18 Development, Shanghai, China

Popular Choice Winner, 11th Annual A+Awards, Transport Interiors

Stations of Shanghai Metro Line 18 by Shanghai Rail Transit Line 18 Development, Shanghai, China.

The Shanghai Metro Line 18 has several stations, including the Danyang Road Station, that were designed to transcend time. The line opened in 2021 and runs through the Yangpu Binjiang area, which is rich in history. The stations use contrasting black and white colors to create a modern feel while also emphasizing the region’s industrial past. The unique design combines a minimalist approach with historical storytelling to create a time-defying architecture.

The stations effectively blend different eras and are a great example of how transport infrastructure can transcend its conventional role, becoming a dynamic space where different periods coexist and enhance the urban fabric.

Architizer’s 12th Annual A+Awards are officially underway! Sign up for key program updates and prepare your submission ahead of the Main Entry Deadline on December 15th.  

Reference

Floating Office Rotterdam
CategoriesArchitecture

Amphibious Architecture: Designing Resilient Coastal Communities for the Future

Floating Office Rotterdam

Architizer’s 12th Annual A+Awards are officially underway! Sign up for key program updates and prepare your submission ahead of the Main Entry Deadline on  December 15th.  

As climate change unfolds, bringing about rising sea levels, increased occurrences of flooding and a surge in climatic events, the concept of living in a floating home or houseboat could potentially emerge as a pragmatic and innovative solution to face the environmental challenges associated with coastal living. Opting for a floating home is not just a practical choice but a visionary one. It signifies a departure from the vulnerabilities associated with traditional coastal housing and an embrace of a lifestyle that aligns with the dynamic and ever-changing character of coastal ecosystems. It is a bold step towards a future where adaptability and ingenuity are at the forefront of our response to the challenges posed by climate change along our coastlines.

Sustainably designed buildings that float on water could positively influence the preservation of at-risk waterside communities at a point where the evolution of coastal development stands at a critical juncture. This evolution demands a transformative shift to confront the adverse consequences of climate change, and the traditional paradigms governing coastal areas must undergo a profound reevaluation that calls for a departure from conventional practices. There is an imperative need for sustainable and adaptive approaches characterized by resilient infrastructure, eco-friendly design principles, and a profound understanding of the delicate balance between human settlements and the dynamic coastal environment.

Hope Floats: Embracing a Wetter Future

Floating Office Rotterdam

Floating Office Rotterdam by Powerhouse Company. Rotterdam, Netherlands. | Photo by Mark Seelen.

Coastal land areas have long endured the consequences of unchecked development. However, looking at the positive aspects amid the challenges of coastal development, there lies a realm of possibilities for innovative design solutions that address the complexities of proximity to water. Coastal development opens avenues beyond the construction of nature-based or man-made flood protection infrastructure, emphasizing adaptability and a symbiotic relationship with the dynamic forces of nature.

Within the realms of design and urban planning, attention turns to floating houses and amphibious architecture some to float permanently, others built on special foundations allowing them to rest on solid ground or float when necessary. These creative solutions aim to mitigate environmental impacts and incorporate resilient design strategies in harmony with natural surroundings. Floating homes can integrate green infrastructure, sustainable building materials, and innovative water management systems, contributing to a reduced environmental footprint. This aligns with a broader ethos of harmonizing human habitation with nature, forging a symbiotic relationship between dwellings and the surrounding aquatic ecosystems. Ultimately, these solutions could make existing communities more resilient and allow them to keep living in the places they are closely connected to.

Tides of Change: The Integration of Floating Houses in Urban Spaces

Waterwoningen

Waterwoningen by Architectenbureau Marlies Rohmer. Amsterdam, Netherlands | Photo by Marcel van der Burg.

Waterwoningen

Waterwoningen. Site plan.

Floating houses are integral to an urban design ethos. Financially categorized as immovable properties, they rival traditional land-based housing in both interior volume and comfort. The appeal of waterfront living lies in its practical response to climate considerations and its role in reshaping urban development paradigms. Additionally, there’s an aesthetic dimension, as living on the water fosters a sense of liberty and closeness to nature. This not only addresses environmental challenges but also contributes to the reinvigoration of urban areas and the sustainable utilization of available space.

Waterbuurt-est, within Amsterdam’s IJburg development, features a density akin to the central Jordaan district, with around 100 homes per hectare. The Netherlands has a history of living close to water. That means living on land protected by dykes, on mounds, ashore, or floating. Only recently have floating homes been eligible as a significant solution to Holland’s modern housing needs. The design challenge was highlighting water as a distinctive feature. Floating houses on jetties and the Quay building on a water-protruding platform solved this, providing an acoustic barrier and parking, considering the ban on vehicles on jetties. Jetties accommodate four to twenty-five houses each, creating a dynamic community. Three towering “pile dwellings” punctuate the landscape, aligning with bridges connecting jetties. This intentional arrangement ensures uninterrupted water views, blending architectural innovation with the natural setting.

Water Cabin: A Tranquil Oasis in Seattle’s Floating Home Legacy

Water Cabin

Water Cabin by Olson Kundig. Seattle, Washington, United States. | Photo by Aaron Leitz.

Water Cabin continues a long history of floating homes in Seattle. Located in a floating home community on Portage Bay, just south of the University of Washington, it establishes a cabin sensibility in an urban environment. Low to the water and small in stature, the home’s interior program is thoughtfully arranged across two levels to maximize connections to the surrounding marine environment. Water Cabin’s materiality draws inspiration from the weathered informality of a cabin. Lightly stained knotty western red cedar exterior siding will weather over time with minimal maintenance. Durable, low-maintenance metal elements like galvanized steel and flame-sprayed zinc nod to the demanding marine environment and will complement the color of the siding as it silvers.

Seascape Metropolis: Rethinking Urban Living with Vertical City

The visionary idea of residing on water transcends being solely an architectural marvel; it emerges as a comprehensive solution for coastal cities navigating the complexities of climate change. It is a testament to the possibility of redefining urban living to be not just sustainable but also regenerative, turning the threats of climate change into an opportunity for creating resilient, vibrant, and environmentally conscious urban spaces along our coastlines.

Vertical Cities

Vertical City by Luca Curci Architects. Dubai, United Arab Emirates.

Vertical City presents a visionary project proposing a water-settled “city-building” designed for 25,000 residents. This innovative initiative fosters a lifestyle deeply connected with water, challenging traditional notions of community and society. Integrating various renewable energy sources such as wind and water turbines, solar panels, energy storage solutions, water desalination, and inclusive food production and farming the project is dedicated to promoting a healthier lifestyle and reimagining urban living by eliminating suburban sprawl. By seamlessly blending sustainability with elevated population density, Vertical City aims to establish a zero-energy “city-building.”

While the challenges of developing land in contact with water are significant, they also offer a compelling canvas for reimagining urban landscapes. By embracing a holistic and sustainable design approach, we have the opportunity to transform potential drawbacks into catalysts for positive change, fostering resilient, inclusive, and harmonious urban environments along coastlines.

Architizer’s 12th Annual A+Awards are officially underway! Sign up for key program updates and prepare your submission ahead of the Main Entry Deadline on  December 15th.  

Reference

6 Homey Ways Architects Are Designing Warmer Office Environments
CategoriesArchitecture

6 Homey Ways Architects Are Designing Warmer Office Environments

6 Homey Ways Architects Are Designing Warmer Office Environments

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.  

Today, our lives are no longer compartmentalized into rigid schedules, nor is the line separating work from leisure as clear-cut as before. When the global pandemic hit in 2020, everyone was forced to work from home, bringing their meetings and busy agendas to the middle of their living rooms, changing much of what we know about the workplace and further blurring the line between the office and the home. That shift later promoted many businesses to uphold the “working from home” setup, at least in a hybrid format with some in-office days, having realized its environmental, financial and social benefits for many.

Following these trends, many businesses are now adopting a comfortable home-like environment — sometimes prioritizing comfort over formality and other times upping their interior decor game to lure employees back to work. These office designs, of course, come without the challenges of WFH policies, such as unexpected family cameos in Zoom meetings and the difficulty of unplugging at the end of a day in the home office. The following trailblazing honorees from the 11th Annual A+Awards awards showcase examples of offices that are so comfortable that employees will feel right at home.


Bay Area Research Company

By SkB Architects, CA, United States

Bay Area Research CompanyEntering this think tank feels like entering someone’s living room, you almost feel like you need to knock first. Designed as an engaging and emotion provoking workplace that seamlessly flows between what used to be two warehouses in the Bay Area in California, this design research company adopts what the designers termed as a “better-than-home” concept, achieved through the selection of furniture, carpets, plants and materials that have contributed to producing a very relaxing and tranquil work environment. The workspaces are distributed over a wide variety of smaller spaces anchored in the open floor plan and staggered vertically across a number of split levels that together enrich the user experience for the employees, guests and collaborators.


EDGE Suedkreuz Berlin

By TCHOBAN VOSS Architekten GmbH,

 From the outside, the two newly designed EDGE office buildings facing Hedwig-Dohm-Strasse in Berlin give no hint of what their insides look like, presenting employees a pleasant surprise once they enter. Inside the “Carré” building, the larger of the two buildings, a generously naturally lit atrium almost looks like a play area for adults, with its design blurring the boundary between the inside and the outside.

This atrium is playfully furnished with a web of tree like wooden structures that offer a variety of platforms for recreation and communication, connected by a network of by filigree steps that facilitate circulation across the building’s different parts. The sustainable state of the art design of both the buildings, which won the project the DGNB Platinum and DGNB Diamond awards, produces a healthy and vibrant work environment for employees and ensures the longevity of the buildings and the reusability of its materials.


DB55 Amsterdam

By D/DOCK, Amsterdam, Netherlands

Photo by Niels Vlug

Photo by Niels Vlug

Photo by Niels Vlug

It is hard to tell what this place is for at first glance, given the variety of activities taking place around the miscellaneous furniture spread out across this building’s different sections. From a bed to a huge dining table and an abdunance of plants, the open floor plan contains a variety of levels where so much is going on at the same time. For those reasons, it comes as no surprise that this building, which used to be a timber warehouse, has a program that combines work and leisure, giving space to different events and even making room for a children’s playground. The array of windows on the top of the building connect the building with the outside and create a pleasant indoor experience, flooding the central open space with its double volume with natural sunlight, while the natural wood that is used in various elements of the interior give a soft and tranquil work ambiance.


Kabelovna Studios

By B² Architecture ,Praha, Czechia

Photo by Alex Shoots Buildings

Photo by Alex Shoots Buildings

Photo by Alex Shoots Buildings

Set in what used to be a cable making factory, the super cozy atmosphere of this recording studio was established through the generous use of plants and the floods of natural sunlight that light up the entire space and allow an interplay of shades and shadows that complement the interplay of the musical notes across the sheets. The different recording studios are distributed around a central “living room” with a seating area and a kitchen, with the high ceiling giving a generous breathing space and the restored brick walls giving the studio a rustic and authentic character that offers a rich background for the recording artists.


Shenzhen Yeahka Office

By JSPA Design, Shenzhen, China

The interiors of the Yeahka headquarter office look like an ultra modern apartment set in a futuristic movie scene, with meeting tables hovering over the building’s central space inside glass boxes and the exposed structure of the refurbished building boldly exposed. The rough appearance of the building’s envelope is nicely contrasted with the use of softer materials and lighter colors for the partitions and the furniture, while the high ceilings allow floods of natural sunlight to travel across the office’s atriums and establish a variety of visual connections for visitors and employees across the different floors.


Casa Pich i Pon. LOOM Plaza Catalunya

By SCOB Architecture & Landscape 

Aesthetically, the organization of this office space is remarkably appealing, allowing the eye to travel across a variety of layers and vertical lines around every corner. Whether it is through the contrast of materials, or the perfect positioning of the working chambers inside the open floor plan, a lot is happening inside this refurbished historical building whose celebratory classic exterior celebrates a masterpiece of its time. The color white, which dominates the interior, sets the stage for the other materials to occupy the space, particularly the red brick walls that stand as a reminder of the building’s rich past.

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

Modern Masterpiece: Architect David Strand on Designing the Perfect “Home in the Woods”
CategoriesArchitecture

Modern Masterpiece: Architect David Strand on Designing the Perfect “Home in the Woods”

Modern Masterpiece: Architect David Strand on Designing the Perfect “Home in the Woods”

If there is one thing that architects and their clients can agree on, it’s that architecture should always work in harmony with nature. When it came to Silver Residence, a stunning modern home located in Minneapolis, nature wasn’t just a consideration — it was the starting point for developing the architectural concept.

Local architect David Strand, Principal and Director of Strand Design, was tasked with creating a private residence that remained intimately connected to its site, while providing light, open spaces and high-end finishes to meet the needs of its client. The resulting house comprises an elegant arrangement of three volumes, cleverly oriented to provide a sense of privacy while maintaining uninhibited views of the surrounding forest.


Architizer’s Editor in Chief Paul Keskeys sat down with Strand to discuss the conception and development of Silver Residence, including the material choices and product specification decisions that helped make the design a reality.

Paul Keskeys: How did the client brief and the project’s unique site help to shape your initial concept for Silver Residence?

David Strand: This was a truly unique site. The lot was essentially an established woodland in the backyards of the neighboring homes. Encircled by their neighbors, our main goal was to utilize the large wooded site while maintaining discretion for the neighbors and our clients. Careful site placement and rotation, focused view corridors and room placement was our initial goal.

What most influenced your choice of materials and products for the project and why?

We wanted the house to stand stoically, but also fade into the surroundings. Getting two large, flat roofed volumes to blend in with nature isn’t that simple. The soft tone of the siding and mixed palette of dark brick and concrete helped reduce the impact. The vertical siding has a very calm and natural look that mimics the linear trees and sky.

The expansive windows reflect the woods, so it appears that you are seeing through the home to woods beyond, helping to minimize the mass of the structures. The home changes throughout the seasons, with the warm glow of the windows in the evening accentuating the natural wood ceilings and cabinetry.

For this project, we chose Marvin windows for several reasons. Firstly, both the builder and Strand Design are familiar and comfortable with the brand, and they know they can trust Marvin to stand behind its product. We were also aiming to maintain the crisp and clean aesthetic of the home, and wanted a product that was more streamlined for the windows within the primary spaces of the living room and kitchen.

The Marvin Modern line brings a refined option to the residential market and allows us to intermix supplier and installer within one brand, facilitating multiple sizes and styles of windows throughout the home. These windows allow for massive pieces of glass with minimal structure between them.

In the Silver Residence, the clean lines and minimal articulation create a truly modern and elevated experience for the public spaces of the home. To be cognizant of the budget and quality we established, we chose Marvin Ultimate due to its durable exterior aluminum extrusion and finish.

In terms of the building envelope, what were your goals and how did you achieve them through detailing?

The expansive glazing of the Silver Residence creates movement and intrigue within its harmonic envelope. From the exterior, during the day, the windows reflect the trees and sky surrounding the home, adding tones of green and blue to the otherwise neutral exterior palette. At night, they allow for the warm interior light to filter out to enliven the facade as it blends into the fading light.

From the interior, the glass connects the home to its site and allows the family to interact with nature, even while inside the home. By drawing natural light deep within the home, we created a dynamic and inviting quality that energizes the interior and enriches the time spent at home.

It is always about purposeful material usage and clean transitions. We strive to design each home within its own scale, allowing for quality material usage inside and out.  We aim to create a jewel box, whatever size that may be. The main problem with what is often perceived as the modern architecture aesthetic today, is the patchwork application of trendy materials that serves no purpose and has no correlation to the massing of the structure.

This home, like most of our homes, is thought of in terms of overall massing to create a relevant aesthetic for the site, with consideration for the scale of the project and also the clients. We created interest by using textural and material changes rather than jarring transitions. By maintaining one primary tone, we were able to create a refined yet tactile material palette. These elements carry subtly into the home, reminding you of what you are inhabiting.

What was the biggest design challenge you faced during the process, and how was it overcome?

For this question, we need to go back to the site. What seemed like a large and blank canvas became very compact and directional when taking all of the neighboring homes into account. Managing the sightlines and drawing the natural light into the homes was the main priority.

Which elements of the project do you feel are most successful and may influence your future designs?

From both the exterior and interior, the large expanses of glass that cleanly transition from one to another add depth and refinement to the home. Blurring that line of transparency and reflection is something we feel this home does well and will aim for in future homes. Purposeful material transitions are a huge part of the success of this home. Simplicity starts and stops with the absence of adornment.

Another programming element that is incorporated very well with this home is the screen porch. Protected between the wings of the house and backed by the glass breezeway, this space allows for intimate family moments and transitions from an open deck to a screened porch seamlessly. Watching the screen slice through the building façade is a satisfying moment.

What has the client’s response to the project been like?

Our clients truly love their home and utilize the residence to its fullest. It’s a home that selflessly demands little of their time and thought, while encompassing comfort, space and warmth. The home serves as the “form and function” backdrop, enriching their own free flowing lives within it.


To explore more case studies featuring Marvin Modern and learn how to harness windows and doors like these for your next project, click here.

Photographs by Chad Holder Photography; plan drawing courtesy of Strand Design.

Reference

Designing with Light: 6 Ways Architects Are Using Swisspearl's Progressive Cladding Panels
CategoriesArchitecture

Designing with Light: 6 Ways Architects Are Using Swisspearl’s Progressive Cladding Panels

Designing with Light: 6 Ways Architects Are Using Swisspearl's Progressive Cladding Panels

Architects: Want to have your project featured? Showcase your work through Architizer and sign up for our inspirational newsletters.

We first understand architecture through it’s façade, the face that it presents to us. This first impression is deeply tied to the materials and building systems a structure is made of. As designers and architects collaborate with manufacturers and fabricators, they continuously reimagine what this “first impression” can be and how buildings perform. A global provider based in Switzerland, Swisspearl is a manufacturer known for rethinking cladding and façades. The company’s guiding principle is to develop and produce forward-looking, functional and aesthetically convincing designs with architects, craftspeople and building material suppliers.

The headquarters of today’s Swisspearl Group is located in Niederurnen, where one of the first production facilities for fiber cement was founded in 1903. For many years, Swisspearl has been developing products made of natural materials for use in building envelopes, interior design and landscapes. The company’s products from their workshops in Niederurnen and Payerne have shaped Swiss building culture and, over time, have been used in projects worldwide. Swisspearl became well-known for cement composite panels (formerly called fiber cement panels or fiber-reinforced cementitious panels) offered in a wide color range. The following projects highlight their panels and product innovations used in architecture worldwide.


Denver Botanic Gardens Science Pyramid

By EUA, Denver, CO, United States

This iconic Science Pyramid was inspired by nature. The team wanted the façade of the building to mimic the hexagonal structure of a honeycomb. The pyramid’s two peaks and 16 facets twist and turn towards the sky as if it was a result of the earth’s colliding tectonic plates. Located in the center of the gardens, the pyramid’s proportions are a inverse of the adjacent amphitheater, made to create harmony between the building and the surrounding landscape.

Faced with the task of designing a transparent pyramid, as specified in the competition brief, the architects of the winning competition entry drew their inspiration from the geological processes causing the ragged rock formations of the nearby mountain ridges. The envelope of the structure informed by a biological metaphor and features almost 500 dark gray, hexagonal Swisspearl panels interspersed with thirty photo-voltaic collectors and multiple windows and skylights.


US Land Port of Entry, Warroad MN

By Snow Kreilich Architects, Warroad, MN, United States

Snow Kreilich designed the Warroad Land Port of Entry to support the mission-driven demands of US Customs and Border Protection (CBP). The 40,108 square foot facility was conceived as a specific response to the vast open landscape along the Minnesota-Canadian border. In turn, its form reiterates the dominant horizon of the landscape while making reference to the East-West border.  Inflected building forms facilitate intuitive use by visitors, the officer’s ability to survey the entire site, and vehicle access to secondary inspections.

Swisspearl was used along the building façade, along with cedar planks stained black. Surfaces that face inward, in contrast, are an auburn-colored cedar. The Warroad Land Port of Entry sets a new standard for remote, small ports in achieving the highest design standard for public buildings. While embracing CBP’s operational procedures and inevitably changing technologies, the design advances the dual mission to protect national security while facilitating trade and travel in a comfortable, efficient facility.


Davis-Harrington Welcome Center

By Dake Wells Architecture, Springfield, MO, United States

Dake Wells designed the Davis-Harrington Welcome Center as a new “front door” welcoming visitors to Missouri State University’s campus. The 13,000 square foot facility includes a two-story lobby and 100 seat presentation room to provide a multi-purpose venue for special events. Tasked by the University with providing a “signature piece of architecture”, the design solution was made to be both economical and monumental. The building program is arranged in a two-story scheme, placing administrative functions on an upper level in order to increase the building’s visual presence as it reinforces the campus edge.

The building enclosure combines a variety of materials in response to the surrounding campus context. The architects used a seemingly paper-thin layer of white Swisspearl panels to sheathe the fully glazed upper sections of the east and west façades. As the team explains, the latter extends slightly beyond the pointed corner of the building where the lower part folds slightly away to extend a welcoming gesture to visitors. Inspired by the pattern of a composition booklet, a seemingly random arrangement of circular perforations feeds dappled light into the atrium and allows views from the second-floor walkway.


Myriad Botanical Gardens

By Gensler, Oklahoma City, OK, United States

The design team wanted to transform Oklahoma City’s Myriad Botanical Gardens from an underused park to a vibrant center of activity for residents and visitors. By adding a new restaurant, open-air pavilion, bandshell and addition to the existing conservatory as well as redesigning the landscape, the design team set out to give the park new appeal. The buildings are linked through consistent geometry derived from the pure Euclidian form of the original botanical conservatory. The compositional elements that form the architectural language include single-story geometric forms, white cementitious panels, water-clear glass and extended overhangs.

Each structure has its own unique character informed by its distinct program. Swisspearl was used as siding for the project throughout. The restaurant is a perfect square, where cantilevered overhangs extend 18 feet on the west side to provide shade from the harsh summer sun. Twelve foot curved glass panels form the circular dining area. While the bandshell is a complex 3D sculptural and monumental form. Since the park’s grand re-opening, the new Myriad Botanical Gardens has added vitality to downtown Oklahoma City attracting visitors each year.


Kindergarten Cerkvenjak

By Superform, Municipality of Cerkvenjak, Slovenia

Desigend as a kindergarten is in the village of Cerkvenjak, this project is located in the center of the Slovenske Gorice region of Slovenia. The kindergarten was designed to be inseparably connected with the natural surroundings of the trees and playground equipment. The concept of the kindergarten is similar to its local surroundings with the rhythmic string of volumes and roofs. Because of this concept, the kindergarten does not surpass the scale of an individual house and gives the user — a child — a sense of home.

The architects drew the inspiration for this kindergarten from a nearby learning path running through the Slovenian village of Cerkvenjak. Intended to enrich the children‘s spatial experience, the hallway inside varies in width and each playroom unit boasts a unique, irregular and contorted shape. The design of the Swisspearl envelope support this idea. The kindergarten is a new program and function that upgrades the existing learning path. The result of using the principle of a learning path is a unique division and rhythm of the playrooms, where the kindergarten is closer to the scale of a child.


The Wallis Annenberg Center for the Performing Arts

By SPF:architects, Denver, CO, United States

SPF:architects took on the revitalization of the dormant Beverly Hills post office site to create a new performing arts center. Built on the historic site, the new project includes a 500-seat theater building connected via promenade and outdoor sculpture garden. The historic WPA building built in 1934 is repurposed to house a 120-seat studio theater, a café, gift shop, box offices, administration facilities and a 3-classroom theater school for children. Outside, a garden and courtyard connect the historic with the new building with direct visual connection to the shops and restaurants of downtown Beverly Hills.

Celebrating the history of the site, the skin is formed in copper-colored concrete panels. A 4 foot by 9 foot envelope-shaped panel is repeated across the façade. The result is an abstract textural pattern, engraved into the building skin. Made out of Swis­s­pearl cement boards, the team redesigned the façade to alter the size and mod­u­la­tion of the ​gaps between pan­els, result­ing in 30% sav­ings in mate­r­i­al. The plan preserves and celebrates the historic architecture, as well as affords the Center the opportunity to create a new, state-of-the-art, flexible performing arts facility with ample back-of-house amenities.

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Reference

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

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

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. 

Reference

Quay Quarter Tower by 3XN
CategoriesSustainable News

Seven principles for designing low-carbon skyscrapers

Quay Quarter Tower by 3XN

Despite growing concerns about the carbon emissions associated with their construction and operation, skyscrapers continue to spring up around the globe. Here, Philip Oldfield sets out seven ways to design tall buildings that are more sustainable.

Is there such a thing as a low-carbon tall building? Or are skyscrapers inherently unsustainable, the SUV of the built environment?

By rising up above their surroundings, tall buildings are exposed to more sun and wind. This could, in principle, be a good thing (think free heating and ventilation). But since so many towers are fully glazed, with little shade, instead they often experience overheating or excess heat loss, increasing operating emissions.

Tall buildings also suffer from what skyscraper architect and engineer Fazlur Khan calls the “premium for height”. As we build taller, towers face higher and higher lateral forces from the wind and seismic loads. To resist these, tall buildings use more structural materials – typically carbon-intensive concrete and steel. The upshot is that taller buildings have a higher embodied carbon than mid- and low-rise blocks.

Across their lifecycle, tall buildings typically generate more emissions

Overall the evidence suggests that across their lifecycle, tall buildings typically generate more emissions than mid-rise. So, should we stop building them?

A major challenge we face over the next few decades is housing billions of people comfortably and safely while radically reducing emissions; 1.6 billion people currently live in inadequate housing, according to the UN. Mid-rise could, and should, provide the basis for much of this. But it’s naive to think there’s a one-size-fits-all solution for every city, and every site.

Where land is scarce, tall buildings can provide greater density, putting more people in close proximity to low-carbon public transit, and the civic infrastructure of the city. The question is: how can we design towers to have far fewer carbon emissions than the norm?

Below are seven principles to follow:


Quay Quarter Tower by 3XN
Quay Quarter Tower in Sydney is an example of a retrofit skyscraper project. Photo is by Adam Mork

Retrofit first

Given that they are an investment of thousands of tonnes of steel and concrete, it seems senseless to demolish a tall building. We only need to look at 270 Park Avenue in Manhattan, built in 1960, retrofitted to LEED Platinum in 2012, but then demolished to howls of despair from architects, historians and environmentalists alike only nine years later so that it can be replaced by a slightly taller and shinier edifice.

A much better approach is to retrofit, reuse and reimagine existing towers, rather than raze and rebuild. The Quay Quarter Tower, by 3XN and BVN, upcycles a 1976 modernist tower block in Sydney, maintaining the core and much of the existing floor plates but entirely transforming the architecture – and increasing the floor area by 35 per cent. This approach reduced embodied carbon by around 8,000 tonnes compared to a new build.


National Commercial Bank in Jeddah
The National Commercial Bank in Jeddah has solid external walls and glazed inner courtyards. Photo is by Wolfgang Hoyt/Esto

Reject the curtain wall

Glazed curtain-walling is the go-to cladding of any skyscraper. Visually monotonous, but also environmentally criminal. You don’t need to be a building physicist to understand why. Even the highest-performance triple-glazing with argon gaps, e-coatings and all the bells and whistles won’t perform thermally as well as a simple insulated wall.

Of course, we need daylight and view, so some glazing is essential – but do we really need to glaze down to the floor and illuminate the tops of our feet? Future tall buildings should embrace shade and solidity in their facades, with glazing limited to perhaps no more than 40 per cent of the wall area.

We can take inspiration from the National Commercial Bank in Jeddah. Designed by Gordon Bunshaft of SOM (who ironically also helped design one of the first fully glazed towers in the world, Lever House, in New York), it has glazed inner courtyards but solid stone external walls as a response to the harsh desert sun.


A visual of the Passivhaus 1075 Nelson Street's exterior by WKK Architects in Vancouver
The under-construction 1075 Nelson Street is the tallest Passivhaus in the world. Image courtesy of WKK Architects

Embrace Passivhaus

One of the environmental benefits of tall buildings is that they are compact, meaning they have less envelope to lose heat from compared to low-rise buildings. This characteristic lends itself to Passivhaus – a performance standard that achieves very low operating energy needs through compact forms, super-insulation, air-tightness and heat recovery.

The tallest Passivhaus in the world is the 178-metre-high 1075 Nelson Street skyscraper designed by WKK Architects, currently under construction in Canada. Better still, why not save both embodied and operational emissions by retrofitting an existing tower to Passivhaus, like ERA Architects have done with the Ken Soble Tower in Hamilton?


The Met by Woha
Woha’s The Met building in Bangkok uses deep balconies to aid cross-ventilation. Photo is by Kirsten Bucher

Flush out the heat

The flipside of a compact shape is that once unwanted heat gets into a high-rise it can be more challenging to get it out again. People and equipment inside buildings give off heat, and because towers are compact and often bulky, they can be more challenging to cross-ventilate.

There are some solutions – designing high-rises with atriums, skygardens, or with permeability can create pathways for breezes to flush out unwanted heat. In Woha’s The Met, in Bangkok, deep balconies provide shade from the sun, while voids cut through the building channel breezes and allow units to be cross-ventilated. Residents have reported little need for air-conditioning as a result, even in the hot tropical climate.


Sara Kulturhus and hotel in Skellefteå
The Sara Kulturhus Centre in Sweden features the world’s second-tallest wooden tower. Photo is by Patrick Degerman

Build with timber

Cement, the primary ingredient of concrete, is responsible for around eight per cent of all human-made carbon emissions. Since tall buildings are big consumers of concrete, can we look to use something else?

Step forward timber. Timber structures have the benefit of lower embodied-carbon emissions than steel and concrete. They are also able to store carbon in the wood for the lifetime of the building.

White Arkitekter’s 20-storey Sara Kulturhus Centre is built from cross-laminated timber (CLT) and glued laminated timber (glulam). The timber in the building stores twice as much carbon as was emitted during its construction.


TU Wien Plus-Energy Office High Rise
TU Wien’s Plus-Energy Office High Rise produces more energy than it uses. Photo is by Matthias Heisler

Reduce first, generate second

It’s much better to embrace energy efficiency and low-embodied-carbon strategies first before thinking about on-site energy generation. The TU Wien Plus-Energy Office High-Rise in Vienna is the retrofit of a 1970s office block (are you seeing a trend here?).

Through the use of a super-insulated and airtight facade, a heat-recovery system, night-flush ventilation and low-energy appliances, primary energy was reduced from 803 kilowatt-hours per square-metre per year to just 56kWh/m2/year. This radical reduction means that with photovoltaic panels on the roof and facade, the tower will generate more energy than it uses over the year.

It’s tempting to add wind turbines to the top of a skyscraper – but don’t do it! While it might create a bold green visual statement, it won’t reduce emissions much. Wind speeds increase with height, so it seems sensible to use this to generate clean energy, but turbines also create noise, meaning their use in urban areas is far from ideal.


The Kingdom Tower by Adrian Smith and Gordon Gill Architecture
The Kingdom Tower in Jeddah is intended to be the world’s tallest skyscraper but construction has stalled. Image is by Adrian Smith + Gordon Gill Architecture/Jeddah Economic Company

Forget about supertalls

Supertall buildings (those over 300 metres) and megatall buildings (those over 600 metres) need exponentially more materials for construction. More concrete, more steel. This means more embodied carbon. Too often towers of this height are created merely as icons, symbols of power and corporate wealth rather than providing essential societal needs. When was the last time you heard of affordable housing in a supertall building, for instance?

Fortunately, there are signs that we are moving away from using tall buildings as urban trophies. In China, where most supertalls have been built, the government has announced a ban on towers over 500 metres, with those over 250 metres “strictly restricted”.

In our climate-change challenged world, every kilogram of material we use is precious – so let’s not waste them on an inane race for height. Low-carbon tall buildings are possible – but we have to put environment before elevation.

Philip Oldfield is Head of School of the Built Environment, UNSW Sydney. He is the author of the Sustainable Tall Building: A Design Primer (2019).

Reference

Host House in Salt Lake City
CategoriesSustainable News

Ten principles for designing cool homes for hot weather

Host House in Salt Lake City

Following a record-breaking heatwave in the UK and western Europe, with climate change meaning that sweltering temperatures are likely to become more common, Smith Mordak outlines 10 ways to design buildings that remain cool in hot weather.

Want to design cool architecture? Of course you do! Follow these principles and you too can be a cool designer of cool spaces that don’t heat up our climate – not cool.


Host House in Salt Lake City
Photo by Lara Swimmer

Ground-source heat pumps and low-lying buildings

Low-lying buildings stay cooler than tall skinny ones because the ground maintains a pretty even temperature. Ground-source heat pumps essentially supercharge this process by facilitating depositing heat in the ground in summer and drawing heat from the ground in winter.

Host House in Salt Lake City (pictured), was designed by architects Kipp Edick and Joe Sadoski to be a net-zero building. It is mostly one-storey and uses a ground-source heat pump as one of its measures for controlling temperatures during the extremes of the Utah summers and winters.

Find out more about Host House ›


Flat House on Margent Farm, Cambridgeshire by Practice Architecture
Photo by Oskar Proctor

Exposed thermal mass

Internally exposed thermal mass is a mini version of this same concept. Thermally massive materials store heat or coolness, reducing the temperature difference between day and night.

Concrete has been soaring high on the thermal mass scale for far too long. The argument goes that while you’ll emit a load of carbon dioxide making the cement, the energy you’ll save by not having to heat and cool the building as much will make up for it. This is as annoying as those ads for excessively packaged nutrient-free foodstuffs that claim you’ll ‘save’ money buying them because they’re not quite as overpriced as they were yesterday, when you’d be better off not buying them at all. Concrete does not have a monopoly on thermal mass.

Hempcrete – a mix of hemp shiv (the woody stem of the plant) and a lime binder – is a highly insulating material that also provides that much sought-after thermal mass without the huge upfront carbon cost. It’s also vapour permeable and absorbs and releases moisture depending on its environment, so it controls humidity. Other low-carbon thermally massive materials include stone, rammed earth, and unfired bricks.

Flat House in Cambridgeshire (pictured), is a zero-carbon house designed by Practice Architecture that makes extensive use of hempcrete inside and out, especially on the exposed interior walls.

Find out more about Flat House ›


Australian Plant Bank
Photo courtesy of BVN Donovan Hill

Air cooling

If you create a labyrinth of thermal mass in your basement then not only do you get to say “want to see my labyrinth?” when people come to visit, you also have a no-need-to-plug-in coolness store always at hand. If you slowly pass outside air across the cool walls and of your cool underground maze before bringing it into inhabited spaces, then you’ve supercooled your passive ventilation without any chillers.

The Australian Plant Bank in New South Wales (pictured) uses an underground thermal labyrinth to capture and retain the heat of the day or the cool of the night, preventing sharp temperature fluctuations and warming or cooling the building by up to 7.5 degrees centigrade. It was designed by BVN Donovan Hill.

Find out more about the Australian Plant Bank ›


The Arc by Ibuku
Photo by Tommaso Riva

Heat extraction

As well as bringing in the cold we need to get rid of the heat. Even if you unplug everything, people still generate heat that needs removing, especially if there are a lot of people in your building.

Of course, unless your building is in a climate that never gets cold, even at night, this heat extraction needs to be controlled. Heat rises, so tall spaces that allow the heat to collect out of the way, openable windows at a high level that let the hot air out, and chimneys with wind cowls that use the passing wind to draw the air up through the building are all good tactics.

The image shows The Arc gymnasium in Bali designed by Ibuku, which uses vents at the apex of its roof to allow warm air to escape. Find out more about The Arc ›


Maggie's Leeds by Heatherwick Studio
Photo by Hufton + Crow

Keeping heat out

To reduce the amount of work the building needs to do to extract the heat or bring in the cold, well-designed buildings keep the heat out. If you don’t have a thermal labyrinth in your basement (yet!) then having a heat exchanger on your air intake/extract means you’re not losing heat in winter or gaining it in summer.

A huge way to prevent the temperature indoors from being a slave to the temperature outdoors is insulation: lovely thick insulation made from biobased, non-polluting materials. Couple this with double or triple glazing and a fat green roof (both insulating and brilliant for biodiversity) and you’re laughing.

The image shows the Maggie’s Centre for cancer patients in Leeds, designed by Heatherwick Studio and built with natural materials. Its roof is covered in plant species native to the woodlands of Yorkshire. Find about more about this Maggie’s Centre ›


Children Village in Brazilian rainforest by Aleph Zero and Rosenbaum wins RIBA International Prize
Photo by Leonardo Finotti

External shading

We’re getting better at insulation, but what we’re still mostly rubbish at as a profession is external shading. This keeps the heat off the building in the first place.

Shading needs to consider orientation. Vertical shading is best for east-and west-facing facades where the sun is lower. Overhangs and horizontal shading are best for the highest sun (from the south in the northern hemisphere and north in the southern hemisphere).

Deciduous trees are also handy, given how they shed their little shading units (aka leaves) in the winter when you appreciate the sun’s warmth. Other dynamic shading options are shutters and awnings that you can move or open and close. The shading is best outside because then the heat never gets indoors, but at a push, internal shading that’s pale – so that it reflects the heat back out – is better than nothing.

Aleph Zero and Rosenbaum designed the Children Village school boarding facility in northern Brazil (pictured) with a large canopy roof framed by cross-laminated timber to shade the building.

Find out more about Children Village ›


Karen Blixens Plads Square in Copenhagen
Photo by Rasmus Hjortshøj

Green urban environments

Designing a cool building is not just about the building, but also about designing a cool environment for your building to be in. The urban heat island effect can increase temperatures in urban areas by more than 10 degrees Celsius compared to their rural neighbours. We desperately need to tackle this if we’re to ease the health impacts of heatwaves and reduce the energy demand of buildings.

This means fewer heat-emitting things in urban spaces, ie fewer cars and fewer air conditioning units pumping out hot exhaust into the streets. It also means not leaving heat batteries lying about in the sun: towns and cities tend to be stock-full of thermal mass in the form of masonry, paving, and tarmac that soak up the heat from the sun and hang on to it tightly. We need less tarmac and more green, and when we retrofit our buildings with external insulation it would be great if this was reducing the amount of masonry cooking in the sunshine.

The Karen Blixens Plads public plaza in Copenhagen (pictured), which was designed by COBE, covers sheltered parking for bicycles and features neutral-coloured tiles frequently interspersed with planting and trees.

Find out more about Karen Blixens Plads ›


Shady tree-lined street
Photo by Wayne W

Shaded public realm

Trees are magic. Not only do they provide shade, habitats for a gazillion species, share information and nutrients with each other and other plants through mycelium networks and improve soil health, but they also cool the air around them via evapotranspiration.

This is where the trees use the heat energy in the air to evaporate the water in their leaves. We don’t need to leave this all up to the trees, however: moving water (from waterfalls to misters) has the same effect, as when the water evaporates it leaves the air around it cooler. We can also rip off the trees’ shading technologies: keep the sun off external spaces to prevent those hard, thermally massive materials from cooking us like pizza stones.

The image shows a street in Shanghai.


White roof
Photo by Víctor de la Fuente

Pale roofs

A final dig at tarmac and its buddy, the bitumen roof, is that they are dark and so they absorb heat. If these surfaces were paler, they could help reflect heat back out of town.

Casa Banlusa (pictured) is a white-roofed villa in Valladolid designed by architecture studio Sara Acebes Anta.

Find out more about Casa Banlusa ›


Paris apartment block by Mars Architectes
Photo by Charly Broyez

Low-energy living and reduced embodied carbon

As well as ‘fabric first’ and alleviating the urban heat island effect, let’s remember that facilitating behaviours that allow us to adapt to a changing climate is also part of this story. For example, how do the acoustics inside your home allow you to work odd hours, or how can you design spaces not for fixed activities, but the flexibility to allow inhabitants to move around a house as the sun moves across the sky?

Reducing the amount of heat being generated inside a building is a concept that bridges behaviour change and building design. Pretty much everything we plug in is pumping out heat (even a fan, depressingly) so we need more efficient appliances but also to just switch stuff off. If there’s an alternative way to do something without energy, consider it!

Mars Architectes designed the apartment block in Paris (pictured) entirely from wooden modules that are also clad in timber.

This brings us almost to the end of our survey of principles for being a cool designer. There’s just one final thing, arguably the most important.

Definitely do all that stuff above, but if you want to be a really cool designer, you need to not only massively reduce the energy needed to make your projects comfortable and healthy, you also need massively reduce the embodied carbon of your projects. In other words, you need to throw off the duvet that is all those greenhouse gases in the atmosphere.

To our human eyes, carbon dioxide and methane are as transparent as oxygen, but if we could see infrared light, we would see the atmosphere getting more and more opaque. Those greenhouse gases are causing global heating by blocking infrared light from busting out into space, like when your duvet hides the fact that your phone is still glowing when your family thinks you’re asleep. Not cool. Not cool. Not cool.

 Find out more about this apartment building ›

Smith Mordak is a multi-award-winning architect, engineer, writer and curator and the director of sustainability and physics at British engineering firm Buro Happold.

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Reference

A Step-By-Step Guide to Designing and Drawing Architectural Lighting Plans
CategoriesArchitecture

A Step-By-Step Guide to Designing and Drawing Architectural Lighting Plans

A Step-By-Step Guide to Designing and Drawing Architectural Lighting Plans

The Fourth Annual One Drawing Challenge is open for entries! Architecture’s most popular drawing competition is back and bigger than ever, including larger prizes. Get started on your submission and hurry — the Main Entry Deadline of October 21st is fast-approaching.

Enter the One Drawing Competition

Are you interested in improving your architectural drawing technique? Follow along as the Founder of 30X40 Design Workshop and One Drawing juror Eric Reinholdt designs and draws an architectural lighting plan showing the necessary fixture types, switching, receptacle locations and all electrical devices and equipment. Designing such details in coordination with the other essential building systems — architectural, structural, mechanical and plumbing — affords the architect more control  in the final outcome by anticipating how these systems will work in conjunction with invisible elements such as beams, ductwork, vent stacks.

Drawing and overlaying each helps to identify conflicts on paper where it’s much more efficient and cost-effective to make changes. In this video, you’ll see how the abstract concepts of ambient, task and accent lighting are accounted for and applied in a real-world design of a remote, off-the-grid residential project in Maine, USA.

Want to get your drawings in front of industry experts like Eric Reinholdt? Consider entering architecture’s biggest drawing competition, which Eric will judge along with other architectural figures such as Bob Borson, Dan Hogman and more!

Eric Reinholdt is an architect, founder of the residential architecture practice, 30X40 Design Workshop, author of Architect + Entrepreneur, innovator of progressive practice models, and the creator of the eponymous YouTube channel, 30X40 Design Workshop. From his remote island studio, Erc makes videos about architecture, designs simple, modern homes, and shares his process online. 

Reference

Designing Domestic Interiors for the Microbiome
CategoriesArchitecture

Designing Domestic Interiors for the Microbiome

Designing Domestic Interiors for the Microbiome

Judging is now underway for the 10th Annual A+Awards Program! Want to earn global recognition for your projects? Sign up to be notified when the 11th Annual A+Awards program launches. 

One of the clearest byproducts of the pandemic has been a renewed focus on the domestic interior. As stewards of our own homes, we have found ourselves examining them under a new microscope, both for their aesthetic ability to bring comfort during a difficult period and for imagined traces of the virus, which we may have reluctantly brought indoors from the outside world at any time. Early on, bags of groceries often spent a day or more outside of our homes; they were punished as alleged viral transmitters and forced to enter a period of quarantine before being allowed in to provide much-needed sustenance. Countertops, doorknobs, and other surfaces that regularly made corporeal contact were scrubbed with a renewed vigor in an effort to sterilize our home from any living presence but our own.

Over the course of the last century, much of modernist architecture can be understood as a consequence of the fear of disease; the construction of physical space to facilitate an ability to cleanse rooms where bacteria lurk. Clean, empty white walls, open floor plans and industrial, highly polished surfaces became synonymous with functional space that allowed the occupant to feel comfortable, safe and germ-free — at least to the naked eye. Architects such as Le Corbusier famously thought that a house should function as a “machine à habiter” or machine for living in his 1923 manifesto for future habitation, Towards a New Architecture. But the lines immediately following this iconic phrase are equally revealing:

“Baths, sun, hot water, cold water, warmth at will, conservation of food, hygiene, beauty in the sense of good proportion… We must clear up a misunderstanding: we are in a diseased state because we mix up art with a respectful attitude to mere decoration.”

The entrance hall in Le Corbusier’s Villa Savoye. © Thomas Nemesker

On the surface, Corbusier’s aesthetic focused on the qualities of unornamented, rectilinear spaces. Yet, a deeper reading reveals an agenda of moral and physical cleanliness. While diseases like tuberculosis and the resulting technologies developed to diagnose them helped to shape modernism and the work of architects like Corbusier throughout the 20th Century; similarly, Covid-19 and our cultural propensity to spend time indoors (up to 90% of our days) will influence architecture in the near future.

Today, our culture is saturated with products focused on sanitizing and architectural surfaces that help to facilitate this ritual cleansing. We commonly hold that sterility is the ideal state of existence, even though it is impossible to achieve for more than even a brief moment. We regularly consume antibiotic treatments for even the most minor illnesses, hoping to eradicate all germs or bacteria on contact. In reaction to the pandemic, architectural publications widely circulated articles detailing products and surfaces with natural anti-microbial properties, including copper and cardboard (to name a few). While there are certainly architectural contexts including the healthcare industry that require starkly hygienic environments, this strategy exists at the expense of the “good” bacteria we need to foster healthy immune systems.

Colonies formed by a variety of bacterial and fungal species. © Scott Chimileski and Roberto Kolter

Conversely, we are composed of 100 trillion microbes, and over half of the cells in our body belong to foreign microbes that inhabit us. On an architectural scale, according to Emily Anthes’ book The Great Indoors, our homes are filled with up to 2000 different microbial “squatters” at any given time. Different areas of the home tend to reveal distinct differences; bacteria found in kitchens is most commonly associated with food, while doors and door knobs are covered in species most typically found in leaves and soil.

Domestic elements like toilet seats and pillowcases look more similar than you’d like to believe under a microscope — both harbor bacteria that typically lives on our skin and in our mouths. More recent research on hygiene espouses a modern microbial perspective that is complex and intertwined with both outdoor and indoor environments; a combination of strategies to expose the body to certain bacteria while targeting certain hygiene to create the framework for healthy protection from pathogens while restoring and reinforcing our microbiomes.

With this in mind, how should our interior domestic environments intervene to foster the restoration, growth or even flourishing of microbial cultures? Revisiting the kitchen with a renewed focus would not be a bad start. In order to re-frame our relationship with microorganisms, we should reference symbiotic examples from the world’s culinary traditions. Bread-baking, kombucha and other fermentation processes that revolve around the kitchen, all produce healthy bacteria that humans benefit from, both during the processes of production and following consumption. In some cases, as with sourdough bread, the microbes found on bakers’ hands even mirror the microbes within their starters, the bubbly mix of yeast, bacteria and flour that’s the basis of every loaf.

Kombucha is fermented by a floating biofilm made up of a symbiotic community of bacteria and yeast, or SCOBY. © Scott Chimileski and Roberto Kolter

In “Micro-ecologies of the Built Environment,” a chapter in The Routledge Companion to Biology in Art and Architecture, Ted Krueger argues that architecture’s conventional focus on the human scale should be brought down in scale to the microbial and that architects should operate more like “creative chefs than forensic doctors”, manipulating conditions to encourage the cultivation of healthy microbiota. In turn, as the architectural discipline evolves into a more microscopic realm, we should promote the design of micro-ecologies within our domestic spaces through the careful selection of materials and spatial conditions, that do not only destroy bacteria but work to nurture what may be beneficial to us.

How can we reframe the notion of cleanliness through the lens of architecture in an age where filth and germs might actually help us survive? It’s clear that our interior environments and the products we use within them need to evolve from a purely adversarial position towards microorganisms, to a far more symbiotic relationship with “good” bacteria. There is an urgent need to develop “architectural probiotics”; environments and surfaces that support the complex conditions needed to partner with microorganisms for mutual benefit. What would this architecture look like?

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