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Version 10 (Sean Logan, 03/11/2014 02:24 pm)
| 1 | 2 | Sean Logan | h1. Wave Articulation Matrix |
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| 3 | 4 | Sean Logan | The Wave Articulation Matrix is composed of concentric steel cylinders. The simplest design uses four cylinders. More sophisticated devices |
| 4 | 4 | Sean Logan | may have 6, 8, or any even number of cylinders. |
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| 6 | 1 | Sean Logan | All the cylinders have the same mass, and all the cylinders have the same surface area. |
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| 8 | 4 | Sean Logan | The length of the innermost cylinder is equal to the circumference of the outermost cylinder. The length of the outermost cylinder is equal to the circumference of the innermost. |
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| 11 | 6 | Sean Logan | h1. From a Golden Spiral to Gabriel's Horn |
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| 13 | 6 | Sean Logan | I would like to show you how the geometry of the Fountain can be derived from a Golden Spiral. |
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| 15 | 6 | Sean Logan | Let's take a look at a Golden Spiral. |
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| 17 | 8 | Sean Logan | Fig. 1: "A Golden Spiral":https://opendesignengine.net/attachments/download/447/golden-spiral3.gif |
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| 19 | 9 | Sean Logan | A Golden Spiral is a kind of Logarithmic Spiral. Its radius multiplies by the Golden Ratio every quarter cycle. In the picture, the Golden Ratio is written as the Greek letter Phi. |
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| 21 | 9 | Sean Logan | Just to make things simpler, let's have our Golden Spiral grow by a factor of Phi every complete cycle, instead of every quarter cycle. Let's also look at our spiral sideways, and allow it to exist in the dimension of time. Now what does it look like? |
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| 23 | 9 | Sean Logan | Fig. 2: "A Golden Spiral in Time":https://opendesignengine.net/attachments/download/448/golden-spiral-2.gif |
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| 25 | 9 | Sean Logan | The envelope of the wave on the right is an exponential curve; the amplitude of the wave is growing exponentially. |
| 26 | 9 | Sean Logan | |
| 27 | 9 | Sean Logan | Can our wave grow in any other way? Yes. Its frequency can grow as well as its amplitude. Let's make a wave where each time it completes one cycle, its amplitude has multiplied by the Golden Ratio, and its period has been divided by the Golden Ratio. Now what does our wave look like? |
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| 29 | 9 | Sean Logan | Fig. 3: "A Golden Spiral with a Hyperbolic Envelope":https://opendesignengine.net/attachments/download/444/hyperbolic-wave.gif |
| 30 | 9 | Sean Logan | |
| 31 | 9 | Sean Logan | This wave has a hyperbolic envelope, not an exponential one, as before. |
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| 33 | 10 | Sean Logan | We can also flip our wave around. This is perhaps the more general form ofthe equation. |
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| 35 | 10 | Sean Logan | Fig. 4: "A Golden Spiral with a Hyperbolic Envelope, a Chirp":https://opendesignengine.net/attachments/download/458/wave.gif |
| 36 | 10 | Sean Logan | Fig 4.1: "The Constant K Determines How Quickly the Wave Collapses":https://opendesignengine.net/attachments/download/457/enter-time1.jpg |
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| 38 | 10 | Sean Logan | If we rotate the envelope of this wave around the Z-axis, we create a Hyperboloid. |
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| 40 | 10 | Sean Logan | Fig. 5: "A Hyperboloid":https://opendesignengine.net/attachments/download/460/below.jpg |
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| 42 | 10 | Sean Logan | A Hyperboloid is also known as Gabriel's Horn, because it looks like the trumpet blown by Archangel Gabriel on the Last Day. It has finite volume, yet infinite surface area. |
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| 44 | 10 | Sean Logan | The cylinders of the Fountain are formed by taking slices of Gabriel's Horn. |
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| 46 | 10 | Sean Logan | Fig. 6: "A Wave Articulation Matrix":https://opendesignengine.net/attachments/download/443/hyperboloid.gif |
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| 52 | 5 | Sean Logan | !http://opendesignengine.net/dmsf_files/262?download=!:http://www.oshwa.org/definition/ |