We are proudly introducing our design, a new dome frame system with integrated polyamide thermal bridge break profiles, Ekodome PRO Series. It maximizes the insulation capacity and fights against condensation problems. With a minimum of 24 R-Value, it exceeds the sidewall requirements of most prefabricated building codes.
The EKODOME PRO architectural solutions helps you build remarkable geodesic domes structures that can be dome homes, glamping domes, or any permanent structure that needs high performance insulation and quality.
As non-transparent cover panels, Ekodome will no longer provide thinner but only 96-98mm thick SIP panels that will guarantee a minimum of 24 R-Value, which exceeds the sidewall requirements of most prefabricated building codes.
The exhibit, called the Tactile Dome, is encased in a geodesic dome about the size of a large weather balloon. Visitors enter through a light-lock room into a totally dark maze (path). Then, for an hour and fifteen minutes, they feel, bump, slide and crawl through and past hundreds of materials and shapes which blend, change and contrast.
The advantage of a geodesic timber dome is how easily it can be covered, rather inexpensively, and quickly. On the other hand, a geodesic dome made of a metal conduit/pipe is a challenge to cover and often an expensive proposition.
Update: Here we share how to build a GeoDome greenhouse. It is our building experience for anyone who wants to build a Geodesic Dome. Check also out how to build a geodesic dome greenhouse version 2.
The challenge with a 3V Dome is that the red struts at the bottom of the dome, as shown above, are 3.6 % longer than all other red struts. Most plans on the internet do not do this little adjustment and end up with an uneven bottom. Sure, it is possible to level the foundation, but much easier to adjust the length of the 10 red struts on the bottom, always in between the pentagons.
The SOLARDOME PRO architectural system can create awe-inspiring bespoke geodesic domes from 6m to 20m in diameter. From a leisure complex to a tropical biome, you can provide breathtaking experiences to set you apart from your competitors.
Fuller developed numerous inventions, mainly architectural designs, and popularized the widely known geodesic dome; carbon molecules known as fullerenes were later named by scientists for their structural and mathematical resemblance to geodesic spheres. He also served as the second World President of Mensa International from 1974 to 1983.
At Black Mountain, with the support of a group of professors and students, he began reinventing a project that would make him famous: the geodesic dome. Although the geodesic dome had been created, built and awarded a German patent on June 19, 1925 by Dr. Walther Bauersfeld, Fuller was awarded United States patents. Fuller's patent application made no mention of Bauersfeld's self-supporting dome built some 26 years prior. Although Fuller undoubtedly popularized this type of structure he is mistakenly given credit for its design.
One of his early models was first constructed in 1945 at Bennington College in Vermont, where he lectured often. Although Bauersfeld's dome could support a full skin of concrete it was not until 1949 that Fuller erected a geodesic dome building that could sustain its own weight with no practical limits. It was 4.3 meters (14 feet) in diameter and constructed of aluminium aircraft tubing and a vinyl-plastic skin, in the form of an icosahedron. To prove his design, Fuller suspended from the structure's framework several students who had helped him build it. The U.S. government recognized the importance of this work, and employed his firm Geodesics, Inc. in Raleigh, North Carolina to make small domes for the Marines. Within a few years, there were thousands of such domes around the world.
International recognition began with the success of huge geodesic domes during the 1950s. Fuller lectured at North Carolina State University in Raleigh in 1949, where he met James Fitzgibbon, who would become a close friend and colleague. Fitzgibbon was director of Geodesics, Inc. and Synergetics, Inc. the first licensees to design geodesic domes. Thomas C. Howard was lead designer, architect and engineer for both companies. Richard Lewontin, a new faculty member in population genetics at North Carolina State University, provided Fuller with computer calculations for the lengths of the domes' edges.
Fuller began working with architect Shoji Sadao in 1954, together designing a hypothetical Dome over Manhattan in 1960, and in 1964 they co-founded the architectural firm Fuller & Sadao Inc., whose first project was to design the large geodesic dome for the U.S. Pavilion at Expo 67 in Montreal. This building is now the \"Montreal Biosphère\".In 1962, the artist and searcher John McHale wrote the first monograph on Fuller, published by George Braziller in New York.
Their construction is based on extending some basic principles to build simple \"tensegrity\" structures (tetrahedron, octahedron, and the closest packing of spheres), making them lightweight and stable. The geodesic dome was a result of Fuller's exploration of nature's constructing principles to find design solutions. The Fuller Dome is referenced in the Hugo Award-winning novel Stand on Zanzibar by John Brunner, in which a geodesic dome is said to cover the entire island of Manhattan, and it floats on air due to the hot-air balloon effect of the large air-mass under the dome (and perhaps its construction of lightweight materials).
In 1969, Fuller began the Otisco Project, named after its location in Otisco, New York. The project developed and demonstrated concrete spray with mesh-covered wireforms for producing large-scale, load-bearing spanning structures built on-site, without the use of pouring molds, other adjacent surfaces or hoisting. The initial method used a circular concrete footing in which anchor posts were set. Tubes cut to length and with ends flattened were then bolted together to form a duodeca-rhombicahedron (22-sided hemisphere) geodesic structure with spans ranging to 60 feet (18 m). The form was then draped with layers of -inch wire mesh attached by twist ties. Concrete was sprayed onto the structure, building up a solid layer which, when cured, would support additional concrete to be added by a variety of traditional means. Fuller referred to these buildings as monolithic ferroconcrete geodesic domes. However, the tubular frame form proved problematic for setting windows and doors. It was replaced by an iron rebar set vertically in the concrete footing and then bent inward and welded in place to create the dome's wireform structure and performed satisfactorily. Domes up to three stories tall built with this method proved to be remarkably strong. Other shapes such as cones, pyramids and arches proved equally adaptable.
On July 12, 2004, the United States Post Office released a new commemorative stamp honoring R. Buckminster Fuller on the 50th anniversary of his patent for the geodesic dome and by the occasion of his 109th birthday. The stamp's design replicated the January 10, 1964, cover of Time magazine.
Small domes can be erected by manpower while bigger domes need a crane. The structure is suitable for all kinds of terrain and implementable to all climate conditions. The spatial building offers many interior arrangements, low energy and sustainable building possibilities as addition of two or several domes.
The technical and professional competence in the development of the Easy Domes geodesic plate structure building system has its origin in research and experiments from the Danish technical university (DTU) and the Danish architectural academy during the 1970s. Common issues were research and experiments on many sided platonic polyhedra with extreme geometrical characteristics.
Each dome is designed and manufactured for personal wishes on room arrangements, windows, in- and out- side building materials, flooring, water- and energy supply a.m. Easy Domes are being produced by KT-Architects.
I DOME CARE - I LOVE IT! Mr. Barlow's Engineering classes learned about geodesic domes and structural engineering today at the ALC. This activity shows how paper built into a dome can create a strong structure that can carry heavy weights. This dome held 15 lbs in the center!
Fuller taught at BMC in the summers of 1948 and 1949, and he served as the Director of the BMC Summer Institute in 1949. While there, he and his students spent a great deal of time working on the design and construction of geodesic domes.
RCOE's geodesic dome will be on display through the end of April 2018. Additional geodesic domes are being displayed across campus, including the Turchin Center for the Visual Arts, and at community locations, including the Blowing Rock Art & History Museum.
In working with architectural forms, Fuller realized that virtually all traditional building had been based on the rectangle as a fundamental structural unit. He discovered, however, that the most stable structural form is not the rectangle but the triangle. The geodesic dome is therefore constructed of any number of equilateral triangles connected at angles to one another to form a dome, which is actually one-half of a sphere.
Hi Stephanie,Very much impressed and thankful for the dome building video you made and so graciously shared for free. Praying that you have that health,strength and time to come up with more projects that is so beneficial to so many.
One of the big draws of a geodesic dome to me is its tremendous structural strength. However, usually I see them constructed from much stronger pipes. Do you have any idea how much your conduit dome can support either on top of it or hanging on it from the inside 781b155fdc