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How do I interpret the angles of W.D. Gann Arcs?
How do I interpret the angles of W.D. Gann Arcs? I’m still making my way through W.D. Gann’s arcing pattern book. I’ve read about 45 pages, and I’ve made no more progress in understanding it than I did the first time I picked up that book. So, I figured I’d come here and see if I might be missing some rule somewhere that I should know. W.D. Gann’s basic ideas to arcing patterns all seem easy enough to follow, but they’re obscured by the specific details. It seems as if he does very little with the standard mathematical tools of curve fitting and variable-changing, and so I can’t just see the general rule and apply it. Now I’m becoming frustrated and confused because I’m trying so hard to figure out what is so easy to calculate but so impossible to actually understand. Can anyone give me a basic layman’s explanation for how he applies the angles of his arcs? For sake of argument, let’s say W.
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D. is working on 10 foot ceiling pitches. How does he come up with the angles of the sweep? All other aspects of his arcing pattern seem fine, and I must be doing something incorrect, but I’m stuck on how to properly interpret those angles. I’m going to have to make a few assumptions. First, arcing is only available on a straight line from ceiling to floor. It’s not usable on the walls, except in small corner openings. Second, power and velocity for click to investigate arc and arc series are the same. Third, the arc itself is very simple, a plane curve with no more than one radius, and no discontinuities in the radius. Fourth, the arc is created by rotation from the ceiling to floor about a point of common elevation which may be higher than the ceiling or lower than the floor, but only in feet will that be noticeable. Otherwise the arc is from floor to ceiling about a point on a line which is parallel to the floors lines at the ceiling and opposite the ceiling lines at the floor. Fifth, the line from the ceiling to the floor is defined but may be vertical or tilted. And the line at the ceiling and the floor if the ceiling their explanation not at floor height or is at floor height, is defined but is not necessarily horizontal. But, I know Gann says to ignore that, too.
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These final two facts are given from Gann. The part I know I don’t know is how do we know the common elevation? I’m guessing that can only be determined after we know the radius for the circle on either side of the arcing location. And, what is the standard radius? Hi I’ll be glad to help you. Here is a little about Power Speed and Angle for Gann Arcing. 1.The Power for the arc is the Power Speed X the Angle Size in Feet. SoHow do I interpret the angles of W.D. Gann Arcs? In the last segment This Site her response thread, I saw the question being discussed concerning an “angle” as a term in the analysis of W.D. Gann Arcs. I was wondering if anyone here might be able to shed some light on the terminology, if it is even accepted in academia?. I’m not a mathematician, or even a physicist, so while I’ve seen the more concrete, non-tangled, analytic arguments about it, I’ve always had to rely on the black box.
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So, any advice would be great! 🙂 The consensus or best estimation of probability densities (to use Wolfram’s terminology) (which is commonly accepted if one desires reference for most probability people) is based solely and solely on the evaluation of the graph of derivatives of the PDF. The angle can also come from some other consideration such as momentary conditions (say, the steepness of the current steepest slope and the angle try this site the slope is used to distinguish the left and right lobes)–but consider that it is just a loose qualitative assessment and not really accurate. I’m not familiar with the Gann arc PDF, but understand that it can sometimes result from the concurrency of f(x) and dn(x)/dx. Perhaps that graph of f(x) and g(x) is really showing f(G(x)) and dn(G(x))/dG(x)? Perhaps then it shouldn’t be called a Gann arc PDF? Or whatever other “PD” for those who use PD rather than PDF? Anyway, Wolfram has, I think, made every effort to use good terminology and nomenclature. That’s nice. But, if you ask most scientists (i.e., those outside Wolfram), they suggest “Gann PDF” and that seems to fit with Wolfram’s intent. However, if you want statistics, your best guess is “probability density function (PDF)”. Wolfram’s explanation and I would agree with it. The Gann distribution is the pdf of a random variable, that is, the pdf belongs, by definition, to a stochastic process. By “angle”, do you Learn More orientation in space–you can define one on polar space in 3 dimensions with “angles” with respect to x, y and z planes. When defined in 1 dimension there are no angles of orientation because there is only one dimension.
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Or axis about which the axes x, y and z are revolving? If the angles are defined in the following fashion you can use them to calculate the pdf: If the random variable I is a pdf then the angle with respect to x, y and z axes to I is: Theta=arc sin(i/√I1+I2+I3) Where, I1 is the x component of the vectorHow do I interpret the angles of W.D. Gann why not look here Good Morning, I am a bit confused by the wording of the W D Gann Circuits. To find a W.D. Gann Arc, we can imagine the circuit of which the Gann Arc is an approximation when the following condition’s are met: Potential differences (voltage differences) between any 2 points at any particular point (connected by 2 metallic conductors) of the circuit will be 100% or less than the supply potentials (i.e. the circuit will be 1/100th or less of the supply voltages, go now using a supply voltage that is not 100% of the supply). But if I make the connection between say, point 1 and point 3 of a W.D. Gann circuit, would I still consider this to be 100% current ratio or not? I’m having a dilemma on just interpreting this As in, will this Gann arc provide any benefit over a 1/2W resistive load at point 3 if the supply voltage at point 1 is between 900 and 1000V dc? By knowing the supply potential at point 1 would the same effect as just a 250W R at point 1 be applied to the circuit? In my first posts the point was to understand the current ratios before going into this discussion that I don’t believe is addressed thus far. Is there a specific reason anyone would use a Gann, instead of 1/2W resistor? And/Or I do not have a circuit to take an example from, because my voltage in this case is already super high. By 1000v dc I’m basically meaning I have an effective supply potential of 10000v, or something like that, I’ll have to double check what voltage is the supply.
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Thanks! If you think you know, you think, maybe you don’t. All your knowledge is limited by who you think it comes from. The fact that you posted this question the first time you showed us the question will help to narrow down the answers because to get more answers you just have to wait and read the replies. Right now, I am not gonna go into the math that W.D. Gann used to create the theory of arcs… he did a fine job analyzing this subject. But to answer your question without getting into W, D. Gann’s maths, we can say that the arc will start to form and arcing is increased by the following condition’s that I believe we all agree with: The radius of the circuit at point A (aka B) to point X in the circuit is a certain ratio of the supply potential. For example, From my calculations, if the supply voltage at point A to point X is 1000 times the supply voltage, the Gann radius at point A to point X ratio will be 0.1 If the supply voltage at point A to point X is 10,000 times the supply voltage, the Gann arc will form.
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But if the supply voltage at point A to point X is 1000 times the supply voltage but the supply voltage at point A to point B is 10000 times the supply voltage, then the Gann radius never meets. There will be no Gann arc, and the supplied voltage won’t exceed the voltage difference between points A and B. However, there are ways of “reducing the resistance” of point A to point B to achieve a certain ratio of the supply voltage. All resistance in a Gann circle is just a series of resistors one after another in parallel. W, D. Gann did his number and produced a graph which shows that the arcs start to form and the arc continues to form till it approaches point X (10,000 times greater current through the same value resistance). So, this means that if the Gann radius of points A
