Determining wire-phi correspondance: Difference between revisions
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Using Mathematica, we can produce a 3D rendering of how the sectors for Level 1 would have to interact with a steady angle theta with respect to the beam line, as angle phi is rotated through 360 degrees. | |||
<center>[[File:PhiCone.png]]</center> | <center>[[File:PhiCone.png]]</center> | ||
Looking just at sector 1, we can see that the intersection of level 1 and the cone of constant angle theta forms a conic section. | |||
<center>[[File:Projection_side_view.png]]</center> | <center>[[File:Projection_side_view.png]]</center> | ||
| Line 10: | Line 14: | ||
<center>[[File:Projection_Rear_view.png]]</center> | <center>[[File:Projection_Rear_view.png]]</center> | ||
Following the rules of conic sections we know that the eccentricity of the conic is given by: | |||
<center><math>\e=\frac{\sin [\beta]}{\sin[\alpha]}</math></center> | |||
Where β is the angle of the plane, and α is the slant of the cone. | |||
If the conic is an circle, e=0 | |||
If the conic is an parabola, e=1 | |||
If the conic is an ellipse, <math>e=\sqrt{1-\frac{b^2}{a^2}}</math> | |||
<center>[[File:Conic_section.png.png]]</center> | <center>[[File:Conic_section.png.png]]</center> | ||
Revision as of 05:18, 3 January 2017

Using Mathematica, we can produce a 3D rendering of how the sectors for Level 1 would have to interact with a steady angle theta with respect to the beam line, as angle phi is rotated through 360 degrees.
Looking just at sector 1, we can see that the intersection of level 1 and the cone of constant angle theta forms a conic section.


Following the rules of conic sections we know that the eccentricity of the conic is given by:
Where β is the angle of the plane, and α is the slant of the cone.
If the conic is an circle, e=0
If the conic is an parabola, e=1
If the conic is an ellipse, [math]\displaystyle{ e=\sqrt{1-\frac{b^2}{a^2}} }[/math]