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Version 46 (Sean Logan, 03/15/2014 02:27 pm)
| 1 | 41 | Sean Logan | !https://opendesignengine.net/attachments/download/482/fountains.jpg! |
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| 4 | 2 | Sean Logan | h1. Wave Articulation Matrix |
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| 6 | 42 | Sean Logan | The Wave Articulation Matrix is composed of concentric steel cylinders. The simplest design uses four cylinders. More sophisticated devices may have 6, 8, or any even number of cylinders. |
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| 8 | 15 | Sean Logan | Fig. 1.1: "Wave Articulation Matrix -- 8-Element":https://opendesignengine.net/attachments/download/446/6frw2.jpg |
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| 10 | 43 | Sean Logan | All the cylinders have the same mass, and the same surface area. |
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| 12 | 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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| 14 | 16 | Sean Logan | Fig. 1.2: "Physical Dimensions -- Side View -- 8-Element WAM":https://opendesignengine.net/attachments/download/439/side_dimensions.jpg |
| 15 | 16 | Sean Logan | Fig. 1.3: "Physical Dimensions -- Top View -- 8-Element WAM":https://opendesignengine.net/attachments/download/455/top-view.gif |
| 16 | 17 | Sean Logan | Fig. 1.4: "Perspective Views -- 8-Element WAM":https://opendesignengine.net/attachments/download/451/primary-axis2.jpg |
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| 18 | 46 | Sean Logan | The WAM can be described as a Log Periodic Nested Waveguide. It is Log Periodic, in that, the radius of each element (counting from the innermost element, outwards) is equal to that of the previous element, multiplied by a constant. Likewise, the length of each element (counting from the outermost element, inwards) is equal to that of the previous, multiplied by that constant. The constant we use (our base of logarithms) is the Golden Ratio. |
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| 20 | 44 | Sean Logan | A Log Periodic Dipole Array is Log Periodic in one dimension, so a curve traced through the tips of its elements is a logarithmic curve. The WAM is Log Periodic in two dimensions simultaneously (radius, and length), so a curve traced through the bottom edges of its cylinders is a Hyperbola. |
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| 22 | 28 | Sean Logan | Fig. 1.5: "The WAM is a Log Periodic Nested Waveguide":https://opendesignengine.net/attachments/download/477/log-periodic2.jpg |
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| 24 | 1 | Sean Logan | If we want to build a 4-element WAM around a 0.75 inch diameter acetel rod, using 0.002 inch thick steel shim stock, then Lambda = 10.008 inch. |
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| 26 | 28 | Sean Logan | Fig. 1.6: "Example Dimensions -- 4-Element WAM":https://opendesignengine.net/attachments/download/453/4wam.jpg |
| 27 | 28 | Sean Logan | Fig. 1.7: "Photo of 4-Element WAM":https://opendesignengine.net/attachments/download/465/IMG_0061.JPG |
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| 34 | 6 | Sean Logan | h1. From a Golden Spiral to Gabriel's Horn |
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| 36 | 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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| 38 | 6 | Sean Logan | Let's take a look at a Golden Spiral. |
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| 40 | 15 | Sean Logan | Fig. 2.1: "A Golden Spiral":https://opendesignengine.net/attachments/download/447/golden-spiral3.gif |
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| 42 | 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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| 44 | 1 | 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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| 46 | 15 | Sean Logan | Fig. 2.2: "A Golden Spiral in Time":https://opendesignengine.net/attachments/download/448/golden-spiral-2.gif |
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| 48 | 1 | Sean Logan | The envelope of the wave on the right is an exponential curve; the amplitude of the wave is growing exponentially. |
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| 50 | 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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| 52 | 15 | Sean Logan | Fig. 2.3: "A Golden Spiral with a Hyperbolic Envelope":https://opendesignengine.net/attachments/download/444/hyperbolic-wave.gif |
| 53 | 15 | Sean Logan | Fig. 2.3.1: "Explanation of the Logarithm Used in the Equation":https://opendesignengine.net/attachments/download/449/logarithm.gif |
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| 55 | 9 | Sean Logan | This wave has a hyperbolic envelope, not an exponential one, as before. |
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| 57 | 1 | Sean Logan | We can also flip our wave around. This is perhaps the more general form of the equation. |
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| 59 | 15 | Sean Logan | Fig. 2.4: "A Golden Spiral with a Hyperbolic Envelope -- a Chirp":https://opendesignengine.net/attachments/download/458/wave.gif |
| 60 | 15 | Sean Logan | Fig. 2.4.1: "The Constant K Determines How Quickly the Wave Collapses":https://opendesignengine.net/attachments/download/457/enter-time1.jpg |
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| 62 | 1 | Sean Logan | If we rotate the envelope of this wave around the Z-axis, we create a Hyperboloid. |
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| 64 | 15 | Sean Logan | Fig. 2.5: "Gabriel's Horn":https://opendesignengine.net/attachments/download/460/below.jpg |
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| 66 | 32 | 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. This is also the correct shape of a vortex in water. |
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| 68 | 10 | Sean Logan | The cylinders of the Fountain are formed by taking slices of Gabriel's Horn. |
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| 70 | 21 | Sean Logan | Fig. 2.6: "Wave Articulation Matrix and Gabriel's Horn":https://opendesignengine.net/attachments/download/443/hyperboloid.gif |
| 71 | 21 | Sean Logan | Fig. 2.7: "Wave Articulation Matrix -- Perspective View":https://opendesignengine.net/attachments/download/438/beautiful.jpg |
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| 80 | 38 | Sean Logan | h1. Wiring Diagrams |
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| 82 | 22 | Sean Logan | The circuit used to excite the WAM is very similar to a RADAR Modulator. |
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| 84 | 37 | Sean Logan | Fig. 3.0: "RADAR Modulator is very Similar to WAM Exciter":https://opendesignengine.net/attachments/download/479/RADAR23.jpg |
| 85 | 22 | Sean Logan | Fig. 3.1: "Simple Wiring Diagram":https://opendesignengine.net/attachments/download/475/wiring-simple.jpg |
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| 87 | 25 | Sean Logan | Let's call the innermost cylinder the Primary Axis, and the outermost cylinder, the Control Ring. Regardless of how many cylinders are in the WAM, all the cylinders between the Primary Axis and the Control Ring are tied together electrically, and provide the output of the device. |
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| 89 | 1 | Sean Logan | Fig. 3.2: "Output Circuit":https://opendesignengine.net/attachments/download/456/wiring-top.gif |
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| 91 | 1 | Sean Logan | We recommend using a Hydrogen Thyratron, Spark Gap, or Gas Discharge Tube as the switching mechanism. This is because these devices switch from "OFF" to "ON" very quickly -- on the order of tens of pico seconds. Some fast IGBTs can switch in 20 - 50 nano seconds, but this is still 1000 times slower than a Thyratron. Why do we need such a fast switch? The switching time is directly proportional to the diameter of the first cylinder surrounding the Primary Axis. The Modes which this cylindrical waveguide can support are around 11 GHz for the 4-element WAM shown above. Larger structures would tolerate slower switching times. |
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| 97 | 8 | Sean Logan | h1. Not a Steady State Device |
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| 99 | 6 | Sean Logan | The Fountain is not a steady state device. It is not excited by RF alternating currents. Rather, it is excited by Transients. |
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| 101 | 30 | Sean Logan | Fig. 4.1: "Transients vs. Steady State AC":https://opendesignengine.net/attachments/download/478/fig8.jpg |
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| 103 | 30 | Sean Logan | For an excellent introduction on Transients, please see: |
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| 105 | 31 | Sean Logan | "Steinmetz, Charles Proteus, Elementary lectures on electric discharges, waves and impulses, and other transients":https://archive.org/details/elementarylectur00stei |
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| 109 | 38 | Sean Logan | h1. Pulsed DC, not AC |
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| 111 | 38 | Sean Logan | The Fountain is excited with pulsed DC, not AC. In a pulsed DC circuit, the magnetic field always spins the same direction. This is in contradistinction to the magnetic field in an AC circuit, which reverses direction repeatedly. |
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| 113 | 39 | Sean Logan | Fig 5.1: "The Magnetic Field in a Pulsed DC circuit Always Spins the Same Direction":https://opendesignengine.net/attachments/download/480/ac-dc.gif |
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| 120 | 38 | Sean Logan | h1. Discharge to Low Voltage, Not to Ground |
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| 122 | 38 | Sean Logan | In order to create the phenomenon, the following must be done: |
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| 124 | 38 | Sean Logan | 1. One plate of a capacitor is connected to Earth Ground. |
| 125 | 38 | Sean Logan | 2. The other plate is charged to a high positive voltage (300-600V). |
| 126 | 38 | Sean Logan | 3. The capacitor is rapidly discharged (through a spark gap, or thyratron) to a low positive voltage (12V). |
| 127 | 38 | Sean Logan | 4. The capacitor is charged up again, and the process repeats. |
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| 129 | 40 | Sean Logan | Fig. 6.1: "The Low Side of the Switch is Biased at +12v":https://opendesignengine.net/attachments/download/481/bias.gif |
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| 131 | 38 | Sean Logan | One terminal of the spark gap is connected to a conductor, which is connected to the high voltage plate of the capacitor. The other terminal of the spark gap is connected to the positive terminal of a 12v battery. The negative terminal of the battery is connected to Earth Ground. |
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| 137 | 38 | Sean Logan | h1. Transformation Between Extensive Space, and Gegenraum |
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| 139 | 38 | Sean Logan | Consider the concept of "Duality" in Projective Geometry, applied not to a particular solid, but to space itself. |
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| 141 | 38 | Sean Logan | Consider the transformation between the Infinite Plane (Euclidean Space), and the Point at Infinite Distance (Gegenraum). This transformation is represented by Gabriel's Horn. |
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| 143 | 1 | Sean Logan | See the Projective Geometry developed by George Adams and Rudolph Steiner. |
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| 145 | 40 | Sean Logan | Fig. 7.1: "Growth Measure from Gegenraum to Extensive Space":https://opendesignengine.net/attachments/download/454/gegenraum.jpg |
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| 149 | 33 | Sean Logan | h1. Recursive Process |
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| 151 | 33 | Sean Logan | Editor's note: This technology comes to us by way of people whose native language is not English. We have done our best to express the important concepts involved in clear English. Here, however, we would like to quote verbatim their description of the recursive process which takes place when the Fountain is in operation. |
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| 153 | 33 | Sean Logan | Each time, Fountain Give Life, |
| 154 | 33 | Sean Logan | Fountain become.... |
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| 156 | 35 | Sean Logan | STRONGER. |
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| 158 | 33 | Sean Logan | So the next time, Fountain Give Life, |
| 159 | 33 | Sean Logan | Fountain Give...... |
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| 161 | 35 | Sean Logan | MORE LIFE. |
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| 165 | 34 | Sean Logan | MORE...... |
| 166 | 33 | Sean Logan | Than the time before. |
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| 169 | 33 | Sean Logan | Hai-lah! Fountain Give! |
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| 173 | 5 | Sean Logan | !http://opendesignengine.net/dmsf_files/262?download=!:http://www.oshwa.org/definition/ |