This web page has free downloads of paper models of 2v and 3v icosahedral domes:
Paper dome models
DomePaper Dome ModelsSubmitted by tcamilli on Tue, 2010-03-09 13:43.
The Geodesic Domes of LOSTSubmitted by synchronofile on Mon, 2010-02-01 22:45.
Geodesic domes in the television series LOST - the math behind them and what they imply about the show. All is revealed at synchronofile.com. | posted in: | help Legal places to live if you have nothingSubmitted by Dick Fischbeck on Wed, 2009-08-12 15:36.
AP photo of Camp Ontario last year. Things have changed since then. The learning curve increase. There IS a legal solution, it turns out! Universal emergency or disaster shelter may soon be a shared work around the planet built by design scientist and anyone else who wants to help. Legal living situations. Ultra-low-cost. Always legal. Civil rights intact. No more chasing and running. This is not camping. Camping is recreation, not home. We can begin to build a scalable village model site in Sacramento and applaud Sacramento's push for Safe Ground. Everyone needs to have a place to sleep day after day. Sleep is a right. World Shelters is in the lead here now. I will post updates as Camp Sacramento emerges. I suspect other cities around the continent will improve on these effort as a solution for unsheltered people as experience grows.
Kids and DomesSubmitted by tcamilli on Sat, 2009-03-28 16:55.
A new web site highlights kid-made domes. Log onto domebook.com to see some of their creations. The students start by constructing paper models (download models of two domes from the "Domes" page of the site), then construct the dome using cardboard or wooden dowels and plastic sheeting. | posted in: | help Australian Dome ShedSubmitted by Linton on Tue, 2009-01-06 13:04.
Linton HODSDON Architect 0416 426 218 Anybody wishing the full copy of this report ( with ALL the photographs of each stage ) or any further details of the project can contact me thru this site. My path to understanding the geodesic dome started with building a cardboard soccer ball ( 3v geodesic sphere ). After meeting Laurence at Babinda ( QLD ) in 1998 and seeing the program he had written to design geodesic domes, I built a 1m dia. 6v dome frame using kebab skewers, plastic tube and cotton. That dome moved around my lounge room for 8 years ( the period of my experiment to apply ‘ livingry ’ to local government politics ) before the next stage began. 6.2m dia. GEODESIC DOME @ 13 Mann Street, Margaret River. A building license for a 6m x 6m shed was issued and earthworks started in September 2006. With the help of Laurence’s 6v dome printout, manipulation by photocopier and traced off at 3v, working drawings were drafted for engineering purposes. Roger Pateman engineer advised that he would have to inspect the finished building before he could certify the structure. The concept for the structure was based on a design for a 3.6m dia cardboard dome found on the BFI website. Triangular panels with a 50 mm tab along each edge, a waterproofing gasket and 5 tekscrews per edge joint … with no structural frame … seemed viable for a 6m+ dia. dome in 1mm thick steel. A 6.2m diameter was found to be the biggest 3v dome possible with panels cut from 1200 mm wide colorbond steel sheet, which also suited window / door heads at 2.2m high. The waterproofing at the apexes was addressed by ss eyebolts thru the inevitable hole at the junction of the 5 or 6 panels, with rubber grommets inside and outside – the eye of the bolt located on the inside to support a tensioned fabric ceiling. After securing a 1.2 tonne supply of steel sheets ( in any colour I wanted, providing it was Wilderness Green ) and finding a willing fabricator ( Warren @ BVA, Bunbury ), a schedule of panels was drafted and a sample panel was fabricated ( the very accurate zincalume panel built into the south face ). The production run of panels resulted in atleast half being outside of ( anticipated ) acceptable tolerance and were sent back for re-folding. Meanwhile, the siteworks for the square shed took on a circular theme – the FRC pipe in the centre of the sandpad, that had been ‘ hanging around with no particular purpose ’ for 20 years, ‘ just seemed opportune ’ for the centre of the floor slab. Thought on how to assemble the panels at 4m+ above ground level found the first application for the hole formed for the middle of the slab. The hole was dug down to 1m deep and a 5.4m long 200mm dia. bushpole was set into it. That is after nearly getting it up by hand with ladders, and putting my back out in the process, then calling on the wonderful simplicity of employing Leeuwin Engineering’s crane hire. At this stage, the dimension creep due to variation of panel size and gasket compression was not known. Similar uncertainty existed about how to line up the panels in the assembly stage – so a jig was made for each of the 3 different edges to pre-drill the holes for the tekscrews. Although this did not fully address the problem of variations in panel size, the holes were vital to adjust the alignment of the panel edges ( with the use of 38 mm nails ) to achieve a satisfactory joint. Panels were put together with the nails and vice clamps to allow the joint to be opened up to fit the gasket, the nails were then used to lever the panels to the best alignment, then clamp next to the hole, remove the nail and tek it off… checking to make sure the gasket has not moved. Panels were assembled in sets of 3 ( easily done while standing the panels on edge ) and then the assembly rack was used to join 2 sets of 3, with the gasket fitted from the top and the tekscrewing being done sitting on the ground underneath. This was all easy ( and good exercise ) for one person, up to a total of 9 panels. Setting the guide holes for the tekscrews close to each apex ( 50 mm ) did not allow enough room to get the drill in to drive the tekscrews. A flexible shaft for the drill helped get the tek started but a ratchet ring spanner was used to tighten them up properly. After breaking 3 flexible shafts, I relied more heavily on that trusty ring spanner. After assembling several sets of panels; allowance for such creep was made, slab formwork was setup ( thanks Mick ) and steel door frames were welded up ( thanks Richo – particularly for introducing me to the hinge weld joint, that was vital to being able to adjust the outer roller door frame to fit the reality of the panels in place ). With the complex roller door frame weighing nearly 170 kg, the crane was again employed to move and locate the frame into place. It became apparent that the best quality panel assembly was done near ground level and that the top of the dome With a continuous ring of panels above door head height, all just sitting on the slab formwork, the slab edge thickenings were dug ( after a trench ‘ cave in ’, the opportune placement of the FRC pipe found another vital application – to wedge against to realign the formwork with the 400 kg of steel panels resting there on ), slab reinforcement was laid, the door and window frames were hung from the panels and the concrete slab was poured. At this moment the unique acoustics of the dome became apparent – amplification of sound within the dome, with greatest amplification at a particular distance from the centre. By this stage it had become patently clear that this building was different to the issued Building License for a conventional shed. After a quick inspection, the engineer was happy to certify the structure for an amendment to the building license. 2 hours later, the Shire’s principal building surveyor rang to enquire about the anomaly. A few additional notes on the working drawings together with the engineer’s certificate were submitted for the amendment to the Building License - that was a Friday. The next day, I left for a 3 month trip to Europe and on the Monday, apparently without Planning department input, the amended license was issued making the structure legal. JUNE 2007 Upon returning from Europe and starting assembly of the top of the dome, I had a nagging suspicion about the durability of the ‘ sponge chord ’ gasket used between the panel tabs. So I found a vacuum hose that should offer better resistance to weathering, reassembled the top panels with the new gasket and dismantled the most exposed panels already erected to replace ( and better fit ) the gasket. In the process, I actually found that the ‘ sponge chord ’ ( that sealed the joint between panels very well ) had weathered well over 6 months ( both summer heat and winter storms ) and, after release, recovered from the compression. The vacuum hose required more pressure to properly seal the joints ( 4 additional tekscrews per joint ) but was easier to install and hopefully will better resist weathering. In the end, the 4 additional tekscrews were also used on the joints with the sponge chord gasket. Next came fitting the eyebolts at the apexes. A 23 mm dia. grommet either side of the colorbond did not seal the junction … a larger 29 mm dia. grommet was found … but that did not work either. Eventually, each eyebolt was fitted with 3 grommets, 2 custom 40 mm dia. rubber washers, 2 nuts, 2 ss washers and a generous dollop of silicone. The intention to avoid adhesives / silicone sealants ( a philosophical desire to make the structure cleanly demountable ) was thereby compromised … but that made it easier to use silicone for some of the leaks found when water testing the top before it was lifted into position. Once lifted on, outside of the top of the dome would be inaccessible. The crane lifted the top into place on a timber lifting frame. An automotive scissor jack was located on top of the bushpole to raised the top off the lifting frame and then progressively lower the top as it was stitched to the lower panels. Fixings to the door frames had to be removed to release the lower panels to flex to mate with the top – the resulting mismatch between dome and door frames was covered by the gutters and opening trim panels. Although the top did not mate perfectly with the bottom, the misclose resulting from the variation in panel sizes created an even 11 mm gap along the last edge ( instead of the 3 – 4 mm margin for the gasket ). Rather than have a new panel fabricated to close this gap, a flashing was fabricated to create a weatherproof permanent vent. The construction role of the bushpole was now finished and the method of removing the 5.4m high bushpole from the 4.7m high high dome was designed to preserve the bushpole for new gate posts with only 200mm of wastage. The bushpole was removed and the hole in the floor was capped with a plywood cover to await another opportune purpose ! The space within the dome could now be properly appreciated and the sound of their own speech at the focus of the sphere has spooked some people. Any flex evident before the top was fitted off disappeared when the structure was complete. With the structure now totally rigid, the standard panels truncated by the PA door and window openings were modified, and the door and window frame side panels could be measured and fabricated. The reveals to the roller door opening were lined with ply wood, the gutter fitted and the roller door installed. The PA door and window side panels, gutters and window were fitted. A fixed plywood panel was fitted to the PA door opening as temporary closure. 25 mm dia. PVC electrical conduit was used for rainwater down pipes to the 50 x 50 colorbond gutters over the window and PA door. Installing the ceiling, a proper PA door and fitting a TARDIS drive mechanism into the hole in the slab will be fun for the future. The construction of shed 3 reused the timber used for the slab formwork for floor framing, the other construction timber was reused for the wall and roof framing and the last 2 sheets of colorbond were used for external end wall cladding. For the moment, the dome is used as a lock up garage. The finished weight of the building, excluding 10 tonne slab, is approximately 1 tonne. Below : Dec 2007 and Finished
DOME-GARDENSubmitted by Springs on Thu, 2008-08-14 08:12.
HABITAT- Workshop DOME-GARDEN. THE STEP for sustainabiliti. We have found one of the branch of the Milky Way spiral galaxy.The Material and energy in journey in spirals. It Is Encoded in our nature DNA. Wholeo the Stained Glass DomeSubmitted by CarolingWholeo on Sun, 2008-07-13 16:31.
New designers lamp based on geodesics -not just a model-Submitted by design news on Sat, 2008-03-15 07:01.
ROXY is a dome for your home! This piece of furniture shows how simple geodesic structures can be. It's intention is to bring geodesic structures at home, to delight us with their beauty, in useful furniture elements. Meet ROXY @ Spiral technology DNA, Shukhov, Fuller, Foster.Submitted by Springs on Sun, 2008-02-24 07:57.
Project "House-sphere ARK" Description. Using the principles of design for DNA helix homes. Priority Patent-1990 "Folding structure-frame netted a shell of rotation". "House-sphere ARK" is a unique educational environment for students and refugees as a result of natural disasters. The manufacture of netted shell, can minimize expense the energy and material costs. Diameter house - 3-9 metres. House-quick-assembly - composed of folding steel mesh, three-layer netted insulation, cement, sheet metal, plywood, fabric, polycarbonate windows. Target groups: children, schoolchildren, nomads, students, The novelty of the project-use of local materials; bags of moss, fabric, warm air veneer sheets, steel wire. Spiral DNA technology- minus welding and less drilling, without waste. Portable Folding netted a shell, elements spirals Snowflakes are designs, crystals are designs, music is design, and the electromagnetic spectrum of which the rainbow colors are but one millionth of its range is design; planets, stars, galaxies, and their contained behaviors such as the periodic regularities of the chemical elements are all design accomplishments. If a DNA-RNA genetic code programs the design of roses, elephants, and bees, we will have to ask what intellect designed the DNA-RNA code as well as the atoms and molecules that implement the coded programs. Technology spiral DNA suitable for design airship and submarine, space houses and hothouses. Thousands of people are realizing that fundamental change is within reach. Measuring up to the target issues for sustainable construction. Quantum changes and replication. "House-sphere ARK"- invention is based on the spiral of DNA and topology XY genes. Steel wire springs shell- structure(frame) similar to DNA and proteins. XY elements of a steel wire and sheet steel are linked fastening bolts. For transportation home Biosphere-used compact containers-2200-2260-4550 mm. The prototype structure of the "House-sphere ARK" patent-Shukhov V.G. Experiments in a magnetic field with a cages Faraday and Tesla, provides the optimum size of the cell to form the structure of the envelope. I plan to build a "House-sphere ARK" on a bog. I developed a biotoilet and electrical generator for autonomous houses. "House-sphere ARK"- two floors -55+27 m2., with the exterior surface of -254 m2.- $ 100 000. So, we can not cover all of our planet a great American city.
Geodesic Dome for Sale Near San FranciscoSubmitted by admin on Wed, 2008-02-06 13:59.
2000 sq ft 38 ft diameter dome home for sale in Emerald Hills, CA -- Bucky made it energy efficient. Models for Legal Urban Campsites and Ultra-Low-Cost MicrovillagesSubmitted by Dick Fischbeck on Sat, 2007-06-16 11:43.
There may be a trend beginning in cities around the US and in Europe. People living on the fringes of traditional shelter as well as some governments are considering new ways to solve the problem of day to day existance for people who are virtually without resources, especially people without land. Here is an article that pretty well sums up the current models for this new kind of living situation. I am talking about portable villages. I will archive recent developements in ultra-low-cost survival options in well-to-do areas here. This thread is about the coexistance of the rich and the poor. I encourage you to share your experiences and knowledge of shelter-for-everyone. The model that works well right here at home may be close to the one that could work in disasters areas and for refugees around the globe. http://gainesville.com/article/2007705280328 This is interesting, too. http://web.mit.edu/newsoffice/2000/wampler.html
7 foot radius geodesic domeSubmitted by harryfish on Tue, 2007-06-12 17:44.
Hey everyone! I am new to this site but thought I would post a project that I have been working on. It is a geodesic dome made out of electrical conduit. It is seven feet tall and can support a tremendous amount of weight. I made it by cutting the pipe to the required size, smashing the ends down and then drilling a hole in them. They were then bolted together. Please let me know what you think + give comments + ask questions. Thankyou! ~Harry
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