Stewart Dickson 110 N Whipple St Fort Bragg, CA 95437 (707)813-0385 Stewart.Dickson@disney.comContact: The Williams Gallery.
The Costa-Hoffman-Meeks Minimal Surfaces,
Trinoid Minimal Surface, Stereoscopic Mathematica computer visualization, (c) 1990 Stewart Dickson.
The slide depicts a three-dimensional parametric plot of the Jorge-Meeks Trinoid minimal surface computed in Mathematica from the Global Enneper-Weierstrass form for Minimal Surfaces.
Press Here for PostScript text on the mathmatics of minimal surfaces.
Hardware/Software used: The Mathematica system for doing mathematics by computer on a Silicon Graphics Personal Iris 4D/25TG.
Trinoid Dimensions: 8.5" X 8.5" X 8.5", Stereolithograph, (c) 1991 Stewart Dickson. Press Here for price list.
The form and Enneper-Weierstrass parameterization were discovered by L. P. M. Jorge and W. H. Meeks III in 1984.
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Software/Hardware used: The Mathematica system for doing mathematics on the computer. Silicon Graphics 4D/25TG Personal Iris. Mathematica- Wavefront-Stereolithography data interface by Stewart Dickson. Stereolithography by SLA-500 system at Hughes Aircraft Company, funding by ACM/SIGGRAPH Special Projects Committee, T. Defanti, Chair.
Enneper's Minimal Surface, Mathematica stereoscopic computer visualization, (c) 1990 Stewart Dickson. Press Here for price list.
Press Here for PostScript text on the mathmatics of minimal surfaces.
Software/Hardware used: The Mathematica system for doing mathematics by computer. Silicon Graphics 4D/25TG Personal Iris.
Enneper's Minimal Surface, Dimensions: 8.0" X 9.0" X 9.0", Stereolithograph, (c) 1991 Stewart Dickson. Press Here for price list.
Software/Hardware used: The Mathematica system for doing mathematics by computer. Silicon Graphics 4D/25TG Personal Iris. Mathematica- Wavefront-Stereolithography data interface by Stewart Dickson. Stereolithography by SLA-500 system at Hughes Aircraft Company, funding by ACM/SIGGRAPH Special Projects Committee, T. Defanti, Chair.
Scherk's Second Minimal Surface, Stereoscopic Mathematica computer visualization, (c) 1990 Stewart Dickson. Press Here for price list.
The slide depicts seven instances of the Fundamental Piece of Scherk's Second Surface computed in Mathematica from the Global Enneper-Weierstrass form for Minimal Surfaces.
Press Here for PostScript text on the mathmatics of minimal surfaces.
Hardware/Software used: The Mathematica system for doing mathematics by computer on a Silicon Graphics Personal Iris 4D/25TG.
The Fundamental Piece of Scherk's Second Minimal Surface, Dimensions: 3.1" X 8.8" X 8.8", Stereolithograph, (c) 1991 Stewart Dickson.
This form affords reproduction in wax via a simple casting technique from a two-piece mould. The design may be repeated in two horizontal directions as well as the vertical direction. Proposed designs range from four to sixteen feet in height.
Press Here for PostScript text on the mathmatics of minimal surfaces.
Software/Hardware used: The Mathematica system for doing mathematics by computer, Silicon Graphics 4D/25TG Personal Iris. Mathematica- Wavefront-Stereolithography data interface by Stewart Dickson. Stereolithography by SLA-500 system at Hughes Aircraft Company, funding by ACM/SIGGRAPH Special Projects Committee, T. Defanti, Chair.
Scherk's Second Minimal Surface, Dimensions: 12" X 8.8" X 8.8", Acrylic on Bronze, (c) 1991 Stewart Dickson. Press Here for price list.
A bronze casting was made from four reproductions of the Stereolithograph of the fundamental piece assembled in wax. This piece illustrates the potential of computer-resident abstraction made concrete. The technology to accomnplish this does not yet exist.
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