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Tensegrity structures are prestressed and self-stable pin-connected frameworks built up mainly from two kind of elements, in compression (bars) and in tension (tendons). It has been 75 years since the first official appearance of tensegrity, although the present paper includes proof that states that they are in fact more than 100 years old. Throughout these years, tensegrity structures have been capturing engineers?, architects? and artists? attention with their peculiar properties. In the last decade, new applications have been found based on tensegrity, although there are not any compilations about them. This paper aims to fill this gap by giving an overview of all the recent real applications that tensegrity has had during its short life, at the same time exposing its potential in all the fields it has contributed to (AEC, robotics, space, etc.) The methodology for performing this review has been revisiting the most relevant publications in several scientific databases. This has led to a new discovery: the first cable-dome by Snelson. As a conclusion, tensegrity has been providing useful solutions to previous problems since they have appeared, but their potential can still grow in an exponential way due to the new technologies and discoveries of the last decade.

The proposed student sculpture will draw attention away from [Kenneth Snelson]'s \"Forest Devil\" and toward an inferior piece whose static form will work to deaden the square. It also will block some views of the plaza: Raised on its own sloping bed, the 3-foot-tall sculpture will grow to 5 feet tall. The beauty of Mellon Square is in the harmony of its elements. The Snelson sculpture was placed not in the center of its rectangular bed, but to one side, balanced by the open grass. A competing sculpture occupies space designed to be empty. It throws off the balance. PHOTO; John Beale/Post-Gazette: The student sculpture will be installed to the left of Kenneth Snelson's ''Forest Devil'' sculpture, in Mellon Square's only open, grassy bed. In this recent photograph, the grassy bed is just above the bed with a chain of five circular plantings.

. Ideas similar to Leonardo’s for lattice structures can found many later practical applications (Buckminster Fuller’s domes, the Zome geometry of Steve Baer from the Whole Earth days, the Tensegrity structures based on the sculpture of Kenneth Snelson, as well as the Catalan vaulting traditions of Gaudi and the Guastavinos.

Others who contributed the funding for the statue include the KMA's Collectors Circle, Barbara and Steve Apking, Ann and Steve Bailey, Kate and Louis Hartley, June and Rob Heller, Alexandra Rosen, Ebbie and Ronald Sandberg, Sherry Spires, Dorothy and Caesar Stair, Sandy and Monroe Trout, and Debbie and Ron Watkins. The Arts Build Communities program funded by the Tennessee General Assembly and administration in cooperation with the Tennessee Arts Commission and the Arts & Culture Alliance also was instrumental in the acquisition. * Oysterfest 2005 was a huge success. Despite a chilly evening, some 550 guests arrived at Concord Marina for a fabulous evening that raised some $47,000 to benefit Childhelp USA Tennessee's programs, which include Childhelp's Advocacy Center on Kingston Pike, the Mobile Advocacy Center, and the Foster Family Agency training program at Childhelp's Smoky Mountain Haven facility that is on property that was once Brookhaven Farm. Jim and Jan Harper came from Troy, Mich., Larry and Sylvia Bartalucci from Rochester, Mich., Gerry and Robert Reblin from Harrison, Mich., [Ray Stone] and Pat Conner from Naples, Fla., and Nick and Fran Newell, from Carlsbad, Calif. Nick and Fran, formerly of Greenback, are frequent visitors who come back for Knoxville Symphony and Childhelp events.

Of all the stories of art influencing science, tensegrity is one of the most far-reaching. On one level, tensegrity is a system of creating architecture or sculptures involving rods in compression and wires in tension. It was invented by American sculptor Kenneth Snelson at Black Mountain College, the hotbed of international modernism, in 1948. Snelson was a student at the University of Oregon, taking part in a summer school with Joseph Albers and Buckminster Fuller. Snelson went on to make many tensegrity sculptures, the most famous of which is the 60-foot high Needle Tower (1968), now in the Hirshhorn Museum and Sculpture Garden, Washington DC. It can be seen at the Kroller Museum, Otterlo, Holland. Both Fuller (1962) and Snelson (1965) patented tensegrity concepts. The human body is certainly a tensegrity structure: it consists of 206 bones - tensegrity rods - that do not touch, held together by tendons and muscles. And the tension of living cells seems to be maintained by tensegrity structures within the cell: microfilaments play the role of the rubber bands and stiff microtubules are the rods.

Controversial photographer Larry Clark, who lived it and photographed it and then published it in a 1975 book, \"Tulsa\" - a stark, documentary tale of the 1960s drug scene in that city - is this week's Photographic Resource Center lecturer. Kenneth Snelson, best known internationally for his aluminum and steel sculptures, also is a photographer of considerable merit. Snelson has worked in the specialized area of panoramic photography, most recently using Widelux - in which the lens moves in a 140- degree arc across a curved film plane - and a modified Eastman Cirkut camera - in which the camera itself revolves while the film plane transports in the opposite direction - to achieve his goals. Some of his work - panoramic scenes of Paris, Venice and New York - is on display through Jan. 6 at the DeCordova Museum on Sandy Pond road in Lincoln. It includes Widelux views in which the panoramic circuit has been completed by adding individual frames to the 140- degree unit. Most of his pictures cover 360 degrees and range in size from 30 inches to 9 feet. Four of Snelson's sculptures also are shown.

[Buckminster Fuller]'s approach to mathematics was experimental. His methods enabled him to make discoveries quicker than more formal mathematical methods. Cardboard, toothpicks, rubber bands, steel bands, ping-pong balls and marbles were extremely important in, what [Michael John Gorman] calls, \"Fuller's geometrical toolbox\". Between 1943 and 1954, he developed his most famous architectural structure: the geodesic dome. In 1956 the Office of International Trade Fairs invited Fuller to create a prefabricated building for the trade fair in Kabul. The designs for the 100-foot diameter dome were produced in one week and the dome was flown from America to Afghanistan in one DC-4 plane. The dome parts were colour-coded, so that untrained workmen with any native language could erect it. Within 48 hours, the dome was erected by local Afghan workmen, who were instantly acclaimed as the most skilled builders. The dome was an extraordinary success, the King of Afghanistan even requested it as a gift. The geodesic dome was launched on a glittering career as a trade-fair pavilion. A student, Kenneth Snelson, working with Fuller in 1948, discovered \"a static structure stranger than anything he could have imagined\". Snelson's wooden X-piece model was the first example of a modular \"tensegrity\" system. \"Tensegrity\" was Fuller's word for structures which combined \"tension\" and \"integrity\". Fuller was convinced that \"tensegrity\" was nature's great structural secret. Gorman notes Fuller underplaying the significance of Snelson's discovery. All his life, Fuller was deeply concerned with protecting his intellectual property and patented many of \"his\" discoveries, requiring universities and students who worked with him, to formally sign away any claims they might have on breakthroughs. The two \"tensegrity\" models, held in Stanford University, are beautiful discovered forms.