- As Posted On www.thisoldhouse.comThe architecture may be old at This Old House's new project in Austin, Texas, but the thinking is thoroughly modern. For the first time, the show is going totally "green"—using as many environmentally friendly building products and methods as possible—and creating a functional home for a contemporary blended family.
The subject of the renovation is a 1926 Craftsman bungalow that owners Michael Klug, 38, co-founder of a hologram company, and Michele Grieshaber, 41, a marketing executive, are turning from a two-bedroom, one-bathroom house into one with four bedrooms and two baths. Michele has owned the house for the past decade, but the couple married this past April and need more room to accommodate their new family, which includes Michael's two sons, Sam, 13, and David, 11. Add in the possibility of another child in the future, and it becomes clear that a house built for the lifestyle of a 1920s family won't cut it for this 21st-century clan.
That said, there are many things about the house's original design that the couple plans to preserve and honor. Built before the days of hulking McMansions with 24/7 air-conditioning, the compact house was built to use natural air flow, high rooflines, and deep overhanging eaves to keep the heat at bay. It was efficient and green, and Michael and Michele have no intention of turning it into a oversized, over-cooled monstrosity devoid of its original Arts and Crafts details. In fact, their second-floor addition will only bump up the roofline by 6 feet. "We don't want a big house; we're not going to gold-plate everything," says Michele. "We don't need fancy—we need functional."Along with the added bedrooms, the couple's other wish-list item is an updated kitchen that opens up onto an entertaining area. Walls will move or come down entirely to allow the couple to interact with friends and family while preparing food. "I love to cook, and I'm at the stove while I'm socializing," says Michael. They also plan to spend as much time outside in the mild weather, so they'll create a screened-in porch and make sure that the entertaining areas connect easily to the outdoors. "We like to live outside more than the average Texan," explains Michael. "We're fine not having the AC on."
That energy-saving mentality is one reason for their desire for a green renovation, but it may be the local way of life that truly influenced them. Austin, a young, tech-company town and one of the fastest growing cities in America, is at the forefront of the green movement. The Austin Green Building Program, one of the oldest in the country, will rate the project for its use of eco-friendly materials. Photovoltaic cells on the roof, rainwater collection for irrigation, spray-foam insulation, recycled-glass tile and countertops, and formaldehyde-free wood composites are just some of the resource-saving strategies and eco-friendly materials planned for the project.
Overseeing it all will be architect David Webber and veteran green builder Bill Moore. With a budget of $250,000, they'll be working hard to incorporate the right materials and still accomplish the changes the couple need. The project will take less than five months overall, but when it's finished, Michael and Michele will have an updated version of their classic house, which they loved so much they couldn't part with it. "We did look at other, renovated houses in the neighborhood," says Michele. "But I feel responsible for this house. Houses have souls, and I need to take care of this one."
Showing posts with label Building Performance. Show all posts
Showing posts with label Building Performance. Show all posts
6.16.2013
This Old (green) House
5.27.2013
TED Talks: Catherine Mohr presents green building and embodied energy
In this short, funny, data-packed talk at TED U, Catherine Mohr walks through all the geeky decisions she made when building a green new house -- looking at real energy numbers, not hype. What choices matter most? Not the ones you think.
http://www.ted.com/talks/catherine_mohr_builds_green.html
Catherine Mohr began her career as an engineer, working for many years with Paul MacCready at AeroVironment to develop alternative-energy vehicles and high-altitude aircraft. Her midcareer break: medical school, where she invented a brilliantly simple device, the LapCap, that makes laproscopic surgeries safer.
Mohr now oversees the development of next-generation surgical robots and robotic procedures, as the director of medical research at Intuitive Surgical Inc., where she's the clinical design leader for the DaVinci Surgical Robotic system. She also works at Stanford's School of Medicine, where she studies simulation-based teaching methods to teach clinical skills to budding doctors. And she's a senior scientific advisor to the GlobalSolver Foundation, an innovative funding and study group that looks at ways to match up scientists and money to help the world's oceans.
Now visit World Class Supply for materials that do a world of good!
http://www.ted.com/talks/catherine_mohr_builds_green.html
Catherine Mohr began her career as an engineer, working for many years with Paul MacCready at AeroVironment to develop alternative-energy vehicles and high-altitude aircraft. Her midcareer break: medical school, where she invented a brilliantly simple device, the LapCap, that makes laproscopic surgeries safer.
Mohr now oversees the development of next-generation surgical robots and robotic procedures, as the director of medical research at Intuitive Surgical Inc., where she's the clinical design leader for the DaVinci Surgical Robotic system. She also works at Stanford's School of Medicine, where she studies simulation-based teaching methods to teach clinical skills to budding doctors. And she's a senior scientific advisor to the GlobalSolver Foundation, an innovative funding and study group that looks at ways to match up scientists and money to help the world's oceans.
Now visit World Class Supply for materials that do a world of good!
Scottsdale's ideas for Green Remodeling
How Scottsdale does Green. Design Principles....
5.16.2013
What Are Solar Roof Shingles?
April
01st, 2013
EarthTalk is written and edited by Roddy Scheer and Doug Moss and is a registered trademark of E The Environmental Magazine (www.emagazine.com).
Q: I’m getting my roof redone and have heard about solar roof shingles. Are they available—and are they practical for the Northeast?
Solar
shingles are photovoltaic
cells designed
to look like and integrate with conventional asphalt roof shingles.
First commercially available in 2005, solar shingles were much more
costly than traditional “bolt-on” photovoltaic panels, and thus
were used mainly by those wanting to go solar but maintain a
traditional roofline. But more recently solar shingles have become
price-competitive with bolt-on panels, and are getting much more
popular accordingly. Eco-conscious home and building owners might
find solar shingles especially attractive when they are re-shingling
anyway since the solar shingles also double as functional, protective
and weatherproof roof shingles in their own right.
The
biggest name in solar shingles is Dow’s Powerhouse line, which uses
cutting edge Copper Indium Gallium Selenide solar cells (aka
“thin-film” solar) to turn sunlight into electricity via a
supplied inverter box. The Powerhouse shingles generate 12
watts per square foot and
are “grid-tied,” meaning they’re designed for structures
already connected to the power grid and can send excess power back to
the grid. They are wireless, snap together and can be installed by
regular roofing contractors just like (or alongside) conventional
asphalt shingles (an electrician needs to set up the inverter box).
Dow
reports that a typical residential cluster of 350 solar singles on a
roof could slash one’s household electric bill by 40-60 percent.
Such an installation can cost a homeowner over $20,000, but federal,
state and local incentives can bring the cost to half that in some
areas. Powerhouse shingles are currently available (from
Dow-authorized contractors) in California, Colorado, Connecticut,
Louisiana, Maryland, Massachusetts, Michigan, New York, North
Carolina, Texas and Washington, D.C.
Another
leader in solar shingles is building products manufacturer
CertainTeed. The company’s Apollo line of grid-tied monocrystalline
solar shingles and roofing tiles offers efficiency similar to larger
“bolt-on” photovoltaic arrays at around the same price (and
incentives similar to those for Dow may also apply) but with less
bulk: Each Apollo tile is less than an inch thick and will integrate
with, replace, or lay on top of existing asphalt roof shingles or
tiles and generate 12 watts of power per square foot.
CertainTeed
says a typical installation will save homeowners 40-70
percent on their electric bills.
Their Apollo products are available across the U.S. but the company
recommends using one of their authorized roofing contractors to make
sure they are installed properly.
Now
is an especially good time to go solar—shingles or
otherwise—because costs have started to come down and the federal
government is still offering 30 percent tax credits with no cap on
the purchase of solar electricity equipment. Twenty-seven states and
several cities offer additional incentives that can get pricing on
solar gear and installations down even lower. For more information
check out the Database of State Incentives for Renewables and
Efficiency (DSIRE), a free online resource provided by the North
Carolina Solar Center and IREC with funding from the U.S. Department
of Energy.
Send questions to: earthtalk@emagazine.com.
Subscribe:www.emagazine.com/subscribe;
Free Trial Issue: www.emagazine.com/trial.
5.13.2013
Know Your House: Components of Efficient Walls
Learn about studs, rough openings and more in traditional platform-frame exterior walls — and why thermal efficiency might not be a priority
Posted from Houzz
Houzz Contributor. My name is Bud Dietrich and I am an architect located in the Tampa Bay area of Florida. I am licensed to practice architecture in Illinois, Florida, New Jersey & Wisconsin and I am a certificate holder from the National Council of Architectural Registration Boards (NCARB). Since 1996 I have worked from my home office and provide full architectural services exclusively to the single family residential market. My passion is to transform my clients' houses into their homes.
In the early 19th century, with the onset of stick-built homes, balloon framing became the norm. With this type of framing, the exterior walls are built of continuous wood studs that start at the foundation's sill plate and stop at the highest top plate. The wood studs that make up these walls can therefore easily be 18 or more feet in length. Balloon framing died out simply because of the unavailability of wood studs of such long lengths.
What came about is platform framing, the method used to build wood-frame houses today. It relies on each story of a house being built as a platform so that the exterior walls are built of wood studs no more than about 10 or 12 feet long.
Here's a look at a basic and traditional platform-frame exterior wall, as well as a variant of this system that uses far less material.
Basic 2-by-4 framing. The most common method of building a wood-frame exterior wall is to use 2-by-4 wood studs spaced 16 inches from the center of one stud to the center of another. These studs are then fastened to a 2-by-4 bottom plate and a double 2-by-4 top plate. Corners have three studs so that there's always a surface to fasten the next material (drywall, sheathing etc.) onto.
Wood-frame walls such as these can be easily built on the wood floor deck and then tilted into place. Once tilted into place and made plumb (straight up and down), even and square (the corners are at 90 degrees or another angle, depending on the design), these walls are securely fastened to the floor structure. Other than the framing needed for openings, such as for doors and windows, the final structural element of a wood-frame wall is the exterior sheathing. Sheathing, usually OSB (oriented strand board) or plywood, is used in most homes to help make the structure rigid so the house doesn't twist or rack. This type of sheathing also provides a surface that siding can be attached to. There are other materials, such as rigid insulation, that can be used in lieu of OSB or plywood. When these materials, which will increase energy efficiency, are used, structural rigidity will be accomplished through bracing or special fasteners or other. |
Openings for doors and windows. To accommodate doors and windows, the framings of walls have framed rough openings. In fact, most manufacturers produce windows and doors that fit within a specific rough opening. Knowing the exact window and manufacturer is important in the planning stage so that the carpenters build the walls as needed.
The parts that form a rough opening are the king stud, jack stud (I'd love to know the origin of these terms), header, sill and cripple. Each piece has a job to do. For example, the jack studs support the header, and the header is used to span the opening. And it should be noted that with a typical 8-foot ceiling, the standard 80-inch-high door fits neatly into a rough opening made with a double 2-by-12 header. With the header placed tightly against the underside of the double top plate, the rough opening measures about 82 inches high. While this isn't the most efficient use of material (the header is often much larger than required), it has become the norm because of its simplicity. |
Optimized framing. Wood framing began when wood was abundant and inexpensive, and a home's thermal efficiency wasn't a consideration. As a result, traditional wood framing uses far more material than it needs to, and the typical 3.5-inch wall thickness doesn't allow for as much insulation as is required for a thermally efficient house.
More advanced framing techniques now use 2-by-6 wood studs in lieu of 2-by-4s, a single top plate and two studs in lieu of three stud corners. The benefits of using 2-by-6s include:
Optimized framing also uses headers that are sized as needed to span door and window openings. While this has the benefit of reducing material costs, it also achieves a distinct architectural look, as taller windows and doors can be had. Find unique and eco-friendly building supply at World Class Supply. |
5.10.2013
How to Be Sustainable and Earth-quake proof
Bamboo Houses Stand Up To Earthquakes
It is called the "poor people's timber" and even in China it is not accepted as a modern building material. But bamboo, like lumber, makes a light, flexible house that is much better than "modern" materials at surviving earthquakes. Now International Network for Bamboo and Rattan (INBAR) is actively promoting it as a replacement.
"So far, massive construction or reconstruction means concrete structures in China, and bamboo is little known for this [building on a large scale]," says Shayam Paudel, INBAR's director of bamboo housing programs, in the Christian Science Monitor. Unlike the "Tofu" concrete structures that collapsed and killed thousands of kids in substandard buildings, bamboo makes a much simpler structure.
INBAR notes that:
INBAR notes that:
-At least 600 million urban dwellers in Africa, Asia and Latin America live in "life and health-threatening homes". At least one billion people do not have access to safe and healthy shelter and the number will increase dramatically with population growth if the appropriate action is not taken (UNEP, nd).
-One billion people live in bamboo houses. In Bangladesh, 73% of the population live in bamboo houses. Bamboo provides pillars, walls, window frames, rafters, room separators, ceilings and roofs.
-It has been calculated in Costa Rica that only 70 ha of bamboo plantation are sufficient to build 1000 bamboo houses per year. If these houses were built with timber, 600 ha of natural forest would be destroyed each year.
-Studies show that processing of bamboo requires only 1/8th the energy for processing of concrete and 1/3rd of that of wood to create a building material of the same capacity. In comparison to steel, bamboo needs only 1/50 of the energy for processing (Roach 1996).
- Due to the lightweight and favorable elastic properties of bamboo, buildings made from it are very good at resisting earthquakes. All 30 houses in the epicenter of a 7.6 magnitude earthquake survived without any damage in Costa Rica.
- Bamboo possesses excellent strength properties, especially tensile strength. Study shows that bamboo is as strong as wood and some species even exceed the strength of Shorea robusta and Tectona grandis (Sattar, 1995).
While much of modern-day building in China is done with steel and concrete, ancient Chinese intellectuals preferred living in retreats made of bamboo, a plant whose qualities were often likened to the character of an honorable man.
In Yunnan Province, which borders Sichuan, the Dai minority still lives in bamboo homes. And in affluent Zhejiang Province, where bamboo is plentiful, local officials have been encouraging architects to design recreational infrastructure using bamboo.
Building experts in China who have been testing bamboo give it the seal of approval for building in the seismic zone.
"Bamboo can be an excellent engineering material. The technology is mature. We believe the bamboo and plywood with a steel frame should be good for earthquakes," says Chen Xu He, formerly a Chinese Academy of Forestry researcher, who tested the bamboo panels used in the INBAR models. via :Archinect
5.06.2013
Know Your House: What Makes Up a Home's Foundation
Learn the components of a common foundation and their purpose to ensure a strong and stable house for years to come
In many respects the foundation is the most important element of any
building, be it a house or a high-rise. Simply put, the foundation is
what everything rests on. So getting the foundation right will go a
long way toward having a sound and stable building for many years.
From pilings to piers to spread footings and more, foundations can be built in many ways. The most common, though, is the simple foundation wall made of poured concrete or concrete block, and a poured concrete footing system. The vast majority of homes in North America are built using this approach, as it's relatively inexpensive and there are scores upon scores of tradespeople able to quickly and efficiently build it. Therefore, the focus of this piece is on the typical wall and footing foundation system.
And remember that you should consult a local architect or builder to review any planned foundation and how local building codes will impact the system design and construction.
From pilings to piers to spread footings and more, foundations can be built in many ways. The most common, though, is the simple foundation wall made of poured concrete or concrete block, and a poured concrete footing system. The vast majority of homes in North America are built using this approach, as it's relatively inexpensive and there are scores upon scores of tradespeople able to quickly and efficiently build it. Therefore, the focus of this piece is on the typical wall and footing foundation system.
And remember that you should consult a local architect or builder to review any planned foundation and how local building codes will impact the system design and construction.
The three structural parts of this kind of foundation:
A very important design consideration is placing the bottom of the footing below the frost line. This line exists at some distance below the surface and is where the ground, or any moisture in the ground, doesn't freeze. Placing the footing below the frost line is essential to prevent any heaving or other movement caused by the freeze-thaw cycle. Note that the depth of the frost line varies by location. The frost line is closer to the ground surface in warmer climates and much deeper in colder climates. But it's essential to know where your frost line is when designing your home's foundation. |
Keeping water out. A
foundation system is in many ways like a big bathtub. But rather than
keeping water in, we want to keep water out. Several components built
into a foundation do just that.
First, the exterior, ground-side face of foundation walls will have a waterproofing material installed on it. This material should be strong enough to prevent punctures or tears and flexible enough to allow for any movement the foundation will experience. This moisture barrier should form a skin not only over the wall but at the top of the footing as well. Next in the line of defense against water is a perimeter drain near the bottom of the footing. This drain is a perforated pipe surrounded by crushed stone to keep dirt and debris from blocking the perforations. Groundwater will find its way to this drain and be channeled away from the footing. Making sure that these drains are clear is a critical step in making sure water doesn't get into the basement or crawl space. Other parts of the waterproofing system:
|
A nice touch for brick exteriors. There
are many variations in any foundation system. One variant is the
incorporation of a brick ledge into the foundation wall design. This is
a nice design detail if you plan to use an exterior brick or stone
finish. Rather than the brick sitting on top of the foundation wall,
the brick can start just below the finish grade, making it appear that
the foundation is constructed of brick, as it would have been in an
older home. Of course, this type of detail has to be worked out
carefully so that the foundation stays dry over the long haul.
Just make sure that you and your architect or builder work out the best foundation system for your particular project. Having a good, stable and solid foundation that stays dry will be worth every cent invested in it. Let World Class Supply help you with your green building materials! |
4.26.2013
Passive Houses Aggressively Reduce Energy
By Wendy Koch, USA TODAY
Updated 2011-02-23 8:26 AM
By H. Darr Beiser, USA TODAY
Heat your home by throwing a dinner party?
This concept may sound bizarre, but it's feasible in cutting-edge green homes that are so well-insulated, they don't need a furnace or boiler. They'll stay warm simply with body heat. A hairdryer might also suffice.
"It's like living in a glass thermos," says John Eckfeldt, a physician who built one of these "passive" homes in frigid Isabella, Minn. He says the inside temperature is so even that if he sees snow falling, he's surprised to realize it must be cold outside.
The windows never feel cold, nor do the concrete floors, even though they don't have in-floor heating, says Joe Turner of his "passive" home in Salt Lake City. "The house is also super quiet."
The passive house movement, popularized in Europe, where thousands of such homes have been built, is starting to catch on in the United States as consumers look to lower their utility bills. These homes don't require pricey solar panels or wind turbines but focus on old-fashioned building science to reduce energy use by up to 90% less energy.
Courtesy of Nancy Schultz
They're different from the "passive solar" homes of the 1970s, which used a lot of south-facing windows for heating, because they emphasize other features: thick walls and roofs (often at least a foot) and triple-paned windows, as well as efficient appliances and lighting. The secret is tightness, achieved via superior insulation and air sealing. A mechanical system brings in fresh air, heating or cooling it as needed.
Few U.S. homes, only a dozen so far, have obtained certification from the Passive House Institute US, a private Illinois-based group that bases its rules on the German Passivhaus standard.
Yet, dozens of homes nationwide are now being designed to meet its strict energy efficiency requirements.
"It's growing exponentially," says Tom DiGiovanni, who heads the Passive House Alliance, a group established last year to promote the standard. He says more than 400 people are now trained as passive house consultants, up from 20 two years ago.
"It feels like we're almost at a tipping point," he says, citing factors such as high energy prices and the Obama administration's push for energy efficiency. "It's like the perfect storm."
Proponents say the passive standard's prime tenets — insulation and air sealing — can also be used by owners of existing homes to boost energy efficiency.
"It holds great promise for this country," says Alex Wilson, executive editor of Environmental Building News. He says the needed materials, especially windows, are becoming more affordable, and building codes are demanding greater efficiency.
"It could be mainstream five years from now," says Nate Kredich of the private U.S. Green Building Council, which has its own green rating system. He says its popularity may depend on whether production builders jump on board and prices fall.
How much more?
Passive homes cost 6% to 12% more than other new homes, but they recoup that premium in lower utility bills in seven to 12 years, DiGiovanni says.
"The biggest extra cost is the windows," he says, noting that U.S. companies have only recently begun making triple-pane windows, so some builders had to import them. California-based Serious Materials makes ultra-efficient dual-pane windows that several U.S. passive homes have used.
Still, he says passive homes can be built on a budget, especially in multi-unit buildings. He says several affordable housing projects, including a 48-unit site in Urbana, Ill., are underway.
"It's innately reasonable," says architect David Peabody, who designed the first passive house in the Washington, D.C., area. He says the extra cost was about 8%, but the annual utility bills for the 4,200-square-foot home are projected at less than $750. U.S. households spent an average of $2,639 on energy costs for homes that size in 2005, the most recent year for which U.S. government data are available.
In Lafayette, La., architecture professor Corey Saft estimates his solar-equipped passive home cost about 10% more than a regular new home. He built it for $110 per square foot, which he says is inexpensive for a custom home. Census Bureau data indicate new homes in the South — many by production builders — sold for an average of $76.77 per square foot in 2009.
"It's the most cost-effective way of accomplishing the least energy use," says architect Dennis Wedlick, who designed New York state's first passive house. He says there was no premium for his Hudson Valley project, because he used Serious' U.S.-made windows and offset the cost of extra insulation by using a tiny, inexpensive ductless heating and air conditioning system.
Yet, Wedlick sees potential obstacles. "It could take a long time to get certified," he says, adding the program is being thoroughly developed but still lacks the staff to handle the booming demand.
Certification can cost several thousand dollars. The Institute charges about $1,000 to review an application for a 2,000-square-foot home, but that doesn't include the cost of hiring a consultant to advise on design and an independent auditor to verify the home's efficiency.
Looks count, too
Another challenge could be aesthetics. Most U.S. passive homes have limited windows and a boxy shape, which is the easiest geometry to keep insulated and highly energy efficient.
Homes with curves and larger footprints require extra insulation and sealing that add to the cost. Eckfeldt says his stylish passive home, with huge curved windows and upscale finishes, cost $450 per square foot.
Just how tough is the standard? John Semmelhack, a passive house consultant in Charlottesville, Va., reviewed one home designed to earn the top rating from the U.S. Green Building Council and determined it wouldn't qualify as a passive house for several reasons: It has too many windows; the windows don't absorb enough solar heat; and the L-shaped, courtyard house isn't a simple cube.
"The hardest type of house to meet the passive standard is a small detached single-family home," says Semmelhack, adding it's easier to meet it with larger commercial spaces, schools or — as is commonly the case in Germany — apartment buildings. He advised on how to get a school in Charlottesville certified; two other U.S. schools have already passed the test.
Climate could also be a challenge for the passive standard.
"It favors a (temperate) climate like Germany's," says Kevin Morrow of the National Association of Home Builders (NAHB). He says U.S. weather is much more diverse — some tropical, some Arctic and some a mixture of both.
Exacting requirements
Regardless of location, passive homes cannot have a heating or cooling load above 4,755 British thermal units per square foot, which is about one-tenth that of homes built to current U.S. codes. They must also be virtually airtight, which requires meticulous sealing of ducts, joints and hairline cracks.
"You can't greenwash this. You have to be a terrific builder to do this," Wedlick says.
To avoid overheating in warm areas, passive homes need exterior shading, ventilation and a cooling system, says German-born architect Katrin Klingenberg. She built her own home in Urbana to the Passivhaus standard in 2002 and opened the U.S. institute in 2008.
"It's basic building science, but it's taken to a high level," says Morrow, adding that NAHB may incorporate passive home rules into its own green building standard.
Kredich says the U.S. Green Building Council may do the same.
Unlike those programs, which also rate homes for water conservation, renewable building materials and other aspects of green building, the passive standard looks only at energy efficiency.
The U.S. Department of Energy did some of the original research on it decades ago, but with energy prices lower in the U.S. than Europe, the standard didn't take off until German physicist Wolfgang Feist founded the Passivhaus Institute in Darmstadt, Germany, in 1996.
One of the standard's benefits is that it makes it relatively easy for homes to become net zero energy, which means they produce as much power as they use, says David Johnston, author of Toward a Zero Energy Home. Because passive homes don't use much energy, he says, a small solar energy system will often be enough to meet their needs.
Saft made his passive home net-zero by adding a three-kilowatt solar array.
So did Eckfeldt and his wife, architect Nancy Schultz, who designed their Isabella home, using photovoltaics to offset their energy needs.
Yet, they can survive even the worst of winter without any help from the sun or backup heating. In December 2009, their house's boiler didn't work for 10 cloudy days when they were out of town and outside temperatures dipped well below zero.
How cold did it get inside? The thermostat held at 51 degrees.
Find Passive House certified windows and other eco-friendly products at World Class Supply
Find Passive House certified windows and other eco-friendly products at World Class Supply
Building Performance and Innovation
Category Archives: better performance
Posted on April 23, 2013 by Graham McKay
This post is a mashup of my 2010 architecture fable The Red Igloo, and thoughts from Patrik Schumacher’s The Autopoiesis of Architecture.
Both purport to convey some kind of truth about architecture.
Both purport to convey some kind of truth about architecture.
* * *
Once upon a time all Inuit people made igloos the same way.
Vernacular building relies on tradition, on well proven solutions taken for granted. The status quo does not require theory. vol.1 p35
They made them out of snow because snow didn’t cost anything, it was there, they had a lot of it, and there would always be more tomorrow. They made blocks out of snow and laid them one by one in a spiral that became smaller and smaller until it made a dome. They made a little entrance to keep the wind out. It always faced away from the wind. And they made a little hole in the wall to let the light in. It always faced the sun. It was as perfect as it could be. For a very long time, everyone made their igloos like this.
The sole responsibility of the avant-garde architect is to mutate [to create mutations] and give innovation a chance. vol.1 p134
Every now and then there was a small change that made igloos even better. Putting a piece of plastic over the hole let the light in and kept the wind out better than a sealskin curtain. But mostly, igloos remained much the same. Nobody could really make them that much better.
Could [innovation] not be done by trial and error? Perhaps, trial and error is always involved. However, construction takes too long, and the material investment is too big to allow for an effective trial and error process unless the process is slowed down to the tempo of tradition by varying and improving in very small steps.
Inuit people still tell stories of a man called Biisaiyowaq. He is famous. He is part of the history of igloos. This is what happened. One day, when Biisaiyowaq was out hunting, he came across a dead polar bear. He took two bowls of its blood, mixed it with about a cubic metre of snow, and used it to make a red igloo for himself.
Architecture is a discourse that is geared to permanent innovation, keeping up with and promoting a dynamic society. The societal need for a permanently updated building environment – inevitable in a society that expands and transforms relatively rapidly – is first the evolutionary attractor for architecture’s crystallisation and then the selector for its further innovation.
A short time after, people came to look at what Biisaiyowaq had done. They all looked at his red igloo and thought the same thing. The first person to say it out loud was a child. The child said, “It’s red! Everything else is white. It’s DIFFERENT!”
The avant-garde work is primarily addressed to an expert audience of other architects, with only a minimal and indirect engagement with a larger, non-expert audience. vol.1 p99
Everyone was quiet for a while. Then one of the adults suddenly said, “It’s NEW!” Almost at the same time, another said, “It’s MODERN!” Another shouted, “It’s BEAUTIFUL!” People were now all saying things at the same time. “You’re a GENIUS!” “It’s so ORIGINAL!” “You’re so CREATIVE!”
One man holding a pencil and paper said, “IT IS A TRULY BOLD AND ORIGINAL ARTISTIC STATEMENT!”
Accountability exists primarily with respect to the internal avant-garde expert audience that largely controls the system of architectural reputations. vol.1 p99
One old woman said, “I remember a story my grandmother once told me about a red igloo. You have brought this story alive, made it real for me. “It RECONNECTS US with our history!” Another person said, “People, we all know it’s not all white out there. There’s polar bear blood, whale blood, walrus blood and seal blood everywhere. Red is WHO WE ARE! Red is HOW WE LIVE!” While everyone was thinking this over, someone at the back said, “I don’t like it.” Another said, “Me neither. That IS NOT an igloo!”
This evaluation of the mainstream in terms of … a compromise of tectonic/aesthetic principles misses the point – the raison d’ĂȘtre of the division of labour within the profession. vol. 1 p134
The man with the pencil and paper said, “Don’t you see? This red igloo opens up A NEW WORLD OF POSSIBILITIES for igloos! IT REDEFINES IGLOOS FOR OUR TIMES! IT MAKES US THINK AGAIN ABOUT WHAT AN IGLOO IS.”
The very act of publication implies the claim that the presented work is worthy of attention. … Published architecture always implies an ambition to act in the name of architecture, and always claims the mantle of contributing to the innovation of architecture. vol.1 p107
Bisaiyowaq went inside his igloo and sat down. He remembered how much EASIER it had been to shape the snow when it had polar bear blood mixed in. It had saved him a lot of time. He thought about all the time everyone else could save. They could spend that time hunting for more food, or inside their igloos eating ice cream and sharing stories with their friends and families. He remembered how much STRONGER the red snow had been. He hadn’t needed to use as much of the pure white snow. He had been able to leave more of it where it was, looking pretty. He remembered how polar bears stayed away from his red igloo and how much SAFER he felt because of that. He thought about how much safer everyone else could be too. He remembered how the red snow made the inside of the igloo WARMER. He didn’t know why, but he knew he didn’t have to use as much whale oil to keep it warm. He thought about all the whale oil the others would save. He thought about all the whales that would not have to be killed.
Experimentation requires a certain distancing from immediate performative pressures and the demand of best practice delivery. vol.1 p135
He remembered all these things but, most of all, he remembered how simple it had been. All he had to do was tell everyone to mix two bowls of polar bear blood into about a cubic metre of snow. He stood up and went outside.
There was a big crowd now. They all rushed towards Biisaiyowaq. “I want a red igloo!” “I want one too!” “We all want one!” “Please show us how to make them!”
They stopped talking when they saw Biisaiyowaq was about to speak. Biisaiyowaq said, “I’m sorry, I can’t teach you. This is something only I can do. You have to know how to choose the right polar bear and kill it in a certain way and at a certain time. I can’t explain how I know this, but I do. It’s an art. Trust me.”
The client’s immediate interests are served only inasmuch as they coincide with the new, generalizable interests of contemporary civilisation that the avant-garde exploration tries to address. vol.1 p134
Everyone was disappointed. One big person suddenly shouted, “It doesn’t matter! I’ll pay you to make a red igloo for me.” Another, bigger one, said, “I will pay you more!”
The man with the pencil and paper (who was actually bigger than them all) said, “Once I tell everyone else, you will be FAMOUS. You will never have to hunt again!” And he rushed off to tell everyone else.
Accountability exists primarily with respect to the internal avant-garde expert audience that largely controls the system of architectural reputations. vol.1 p99
And so it came to be that, apart from killing the occasional seal for blood to make his red igloos, Biisaiyowaq never had to hunt again.
Success in the market and the new responsibilities that come with it sometimes prevent avant-gardist challenges from being taken up once more. vol.1 p104
Thus the theory of architectural autopoiesis identifies the innovation of the built environment of society as a defining aspect of architecture’s societal function. vol.1 p99
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