It seems like everyone is going solar these days. In the United States, the net solar power generation has increased by more than 113,000 million kilowatt hours in the last decade. Solar integration with residential projects saves homeowners money on energy bills and increases property value over time. As solar integration technology advances, the advantages span beyond financial and environmental; solar panels are assuming an aesthetic role in modern architecture, too.
Solar integration is becoming an expectation among new construction homebuyers. Architects and designers must adapt accordingly to increase the availability of photovoltaic integration in residential developments. However, with careful planning and execution, solar panels can be better incorporated during the design and construction phases. This article outlines how homebuilders can meet consumer demands for solar integration, creating an easy-to-follow pathway for accommodating changing home design trends.
The main role of architecture is to create structures that protect us from the environment and create spaces that are safe and comfortable for all types of needs and activities. By providing shelter, architecture also shapes the way people interact with their surroundings. Building technologies of the past rarely managed, however, to create a complete separation between us and the outside world.
While impermeability was a desired outcome, the porous building materials available always allowed some water, wind, or outside particles to leak into the interior spaces. In contrast, modern technologies now allow for almost completely impermeable building envelopes, allowing for complete separation between indoors and outdoors, thus relying on engineered systems to regulate temperature, airflow, or humidity. This article explores the differences between these two contrasting approaches, exploring how building facades are equipped to regulate indoor comfort and its environmental impact.
Solar Facades on Bornholm Hospital. Image Courtesy of SolarLab
Environmental degradation has shed light on the need for new sources of energy. A shift in energy sources calls for innovative means of storing energy. For centuries, buildings have proven able to store people, objects, and systems, inviting a conversation about their untapped potential to efficiently store large amounts of energy. In this new era, can buildings go beyond being structures of function to potential reservoirs of power?
Solar heating has existed in architecture since ancient times, when people used adobe and stone walls to trap heat during the day and slowly release it at night. In its modern form, however, solar heating first developed in the 1920s, when European architects began experimenting with passive solar methods in mass housing. In Germany, Otto Haesler, Walter Gropius, and others designed schematic Zeilenbau flats that optimized sunlight, and following the import of “heliotropic housing” to the U.S., wartime fuel shortages during World War II quickly popularized passive solar heating. Variations of this system then proliferated around the world, but it was not until 1967 that the first Trombe wall was implemented by architect Jacques Michel in Odeillo, France. Named after engineer Felix Trombe, the system combines glass and a dark, heat-absorbing material to conduct heat slowly into the house.
https://www.archdaily.com/946732/how-does-a-trombe-wall-workLilly Cao
Including sustainable strategies in architectural projects is not just a trend, it is a necessity. Each day we become more aware of the importance of responsibly managing natural resources and understanding the environmental factors involved in designing a project.
Solar energy is one of the most commonly employed strategies in residential architecture, both active and passive. Many countries around the world offer incentives to encourage the use of solar systems, and the benefits of installing these systems can be seen in a short period of time, with a reduction of up to 95% in the monthly energy expenses, which makes this strategy one of the most attractive of all sustainable solutions. Furthermore, the average lifespan of a solar panel is 25 years, operating entirely on its own and requiring only basic cleaning once a year.
In the face of the environmental crisis and the need to mitigate climate change, adopting clean and renewable energy sources, such as solar energy, in architectural projects is becoming increasingly imperative. As a country with abundant sunlight incidence throughout the year, Brazil has enormous potential to take advantage of this energy source, which has become an increasingly attractive and viable option in the Brazilian scenario. There are numerous benefits solar energy can provide to both residents and the environment that make it a popular choice for residential use.
CRA-Carlo Ratti Associati, together with architect Italo Rota and urbanist Richard Burdett, unveiled the master plan for Rome’s bid to host the World Expo in 2030. The project proposes a joint effort from every participating country to contribute to a solar farm that could power the exhibition site and help decarbonize the surrounding neighborhoods. The Expo is proposed to take place in Tor Vergata, a vast area in Rome and home to the eponymous university and a densely inhabited residential district. All the pavilions are designed to be fully reusable, as the area is proposed to be transformed into an innovation district after the event in the hope of revitalizing the somewhat neglected neighborhood. The master plan was developed with several partners, including ARUP for sustainability, infrastructure, and costing, LAND for landscape design, and Systematica for mobility strategy.
Under the motto "Get Set," the 2022 DDW exhibited more than 50 art and architectural installations to call out designers and communities for a shift from preparation to action facing the challenges of our time. Led by Miriam van der Lubbe, Creative Head of DDW, with Marjan van Aube and Formafantasma as ambassadors, the 21st edition of the Dutch Design Week took place the last week of October in Eindhoven, the Netherlands closing with a Graduation Show of over 200 students of the Design Academy Eindhoven.
Inspiring designers to incorporate innovation and sustainability and familiarize the public with all the technology has to offer, ArchDaily has selected 9 relevant works focused on bio-materials and modular systems. Highlighting ongoing design research, the list underlines projects that reinvent how we deal with nature and the space we live in.
The Het Nieuwe Instituut in Rotterdam, The Netherlands, opens The Energy Show and the Solar Biennale on Friday, September 9, 2022. In collaboration with The Solar Biennale designer and curator Matylda Krzykowski and solar designers Marjan van Aubel and Pauline van Dongen, the exhibition presents a series of projects that explores the sun's meaning and possibilities in society, the environment, and design. With Europe in the midst of an energy crisis, The Energy Show and the Solar Biennale is an opportunity for designers and the general public to examine the transition to solar energy and technology as we move towards a post-carbon future.
MVRDV ‘s latest project designed for government-owned power company Taipower is “a tool for energy production”, communicating Taiwan’s goal of transitioning to green energy. The morphology of the project and its architectural image are entirely data-driven, the expression of the most efficient way of generating solar energy on the site. An operations facility comprising offices, a maintenance workshop, storage spaces, and a public gallery, the project is defined as a “built manifesto”, projecting the company’s aspirations for achieving a “carbon-free future”.
The building construction industry currently accounts for 40% of annual greenhouse gas emissions, due to its high carbon embodiment and carbonated energy demands. Building-integrated photovoltaics (BIPV) is a sustainable solution to address these concerns and to contribute to a net-positive world. This advanced technology can be utilized in solar building envelopes, skylights, windows, and balcony railings to produce green energy.
Climate change remains a foremost concern in global politics, economics, and scientific research, particularly as it pertains to the architecture and construction industries. This heightened culpability for the field of architecture stems from the fact that the construction industry contributes to 40% of global emissions, and the demand in the building sector is only projected to increase by 70% by 2050. Renewable energy is part of a 21st-century sustainability paradigm that responds to climate change and environmental degradation, strengthening the momentum for global energy transformation. Renewable energy production strategies are necessary to mitigate future energy security issues as traditional sources of fuel become increasingly scarce, and an indispensable part of designing for sustainability in architecture.
https://www.archdaily.com/961422/integrating-solar-technology-into-facades-skylights-roofing-and-other-building-elementsLilly Cao
Solar design in contemporary architecture is rooted in the profession's sustainable turn. The relationship between architecture and energy is tied to both passive strategies and performance via more recent innovations in technology. As one way to begin addressing the global climate crisis and greenhouse gas emissions, solar design is reshaping cities and architecture around the world.
As concern grows regarding the contribution of fossil fuels to global warming, solar energy is an increasingly attractive power source due to its zero emissions and infinite supply. As builders turn to incorporate solar energy systems into their projects, many options are available to harness the power of the sun for commercial and industrial installations. While AEC Daily’s course on “The Good, the Bad, & the Ugly” of rooftop solar photovoltaic systems might not be a 1960s spaghetti western, it will guide you through the wild west of installation processes and options.
Once restricted to space stations and satellites, photovoltaics are now gaining popularity and becoming an increasingly viable option. Every day, the sun releases an enormous amount of energy, far more than the entire population consumes. Being that the sun is a sustainable, renewable, and inexhaustible source for generating electricity, not using it seems almost counter-intuitive, especially considering the social and environmental impacts of other forms of energy generation. But the technology to create electricity from the sun is by no means simple and still has some limitations, the most significant being price. The following article attempts to explain some basic concepts about this process, and to highlight important considerations for designing a solar energy system.
Located in Trondheim, Norway, Powerhouse Brattørkaia, the world’s northernmost energy-positive building, designed by Snøhetta challenges the traditional notions of construction and puts in place new standards for buildings that produce more energy than they consume.
Rwanda’s largest publicly funded project, Bugesera International Airport is on track to be the first certified green building in the region. A few pieces of this net zero emission complex include: a 30,000 square metre passenger terminal, 22 check-in counters, ten gates, and six passenger boarding bridges. Funded by Public Private Partnership, the project is cost estimated at $414 million USD. The international hub was only one of several initiatives discussed by the AfricaGreen Growth Forum (AGGF) in Kigali at the end of last year.
The California Building Standards Commission has approved a new rule starting in 2020 that requires all new homes built in the state to include solar panels. As the first of its kind in the United States, the new rule includes an incentive for homeowners to add a high-capacity battery to their electrical system. The move hopes to help meet the state's goal of sharply reducing greenhouse gas emissions while drawing all electricity from renewable energy sources.
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