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codex34
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Anyone interested in going over some crude experiments and having a look to see if anything stands out as incorrect or impracticle?
I'm not interested in any discussion as to the validity of doing the experiments, kindly keep that nonsense to yourself, I'm only interested in any input to correct, improve on them, or extend them for non visible or polarized light.
I'm not interested in any discussion as to the validity of doing the experiments, kindly keep that nonsense to yourself, I'm only interested in any input to correct, improve on them, or extend them for non visible or polarized light.
These experiments represent an attempt to investigate red shift anomolies through experiment rather than to use statistical probability to simply ignore them.
The experiments are quite simple, they test primarily for shape distortion of redshift values, that is, to determine whether object shape has any bearing on perceived redshift value, shape being determined to be both perceived visible shape and non perceived - non visible shape which include but are not limited to components such as jets, rings, or any other observations that are not included in the visible light spectrum.
Experiment 1
A telescope is set up to determine the velocity field of a star in a polar region using long slit spectography.
After determining the velocitiy field, the slit, prism/grating, and detection equipment is fixed in place to prevent further adjustment or tampering.
Each week a further velocity field is measured for a period of 3 to 12 months.
Testing should also be performed on astronomical objects of differing shapes.
Experiment 2
A telescope is set up to determine the redshift value of an edge on galaxy.
The spectrographic equiptent is modified to rotate both the prism/grating and detection equiptment together about an axis that runs from the center of the collimating lens/mirror to the center of the prism/grating (ie, the optical axis).
The redshift value is determiined and compared to the already known value.
After determining the redshift value, the prism/grating and detection equpitment assembly is rotated about the aforementioned axis in 5° steps with a redshift value being determinied for each step.
The experiment should continue for a full 360° sample of values.
Experiment 3
A telescope is set up to determine the velocity fiields of an edge on galaxy.
The telescope is set up similarily to experiment 2 using a long slit.
The long slit is allowed to rotate independantly of the prism/grating and detection equpitment assembly.
Determine a velocity field as normal.
The experiment is then split into three sub experiments.
1) Rotate the slit only and determine the velocity fields over 360° in 5° steps.
2) Rotate the prism/grating and detection equpitment assembly but keep the slit fixed and determine the velocity fields over 360° in 5° steps.
3) Rotate the prism/grating and detection equpitment assembly and slit at the same time, and determine the velocity fields over 360° in 5° steps.
Experiment 4
A telescope is set up to determine the redshifts of multiple objects.
This experiment requires more expensive equipment, either a convex collimating mirror or equivelant concave collimating lens.
The experiment is however quite simple, instead of collimating light from a point behind the ideal focal point, light is collimated from a point before the ideal focal point.
A known, fairly close proximity object is used to calibrate the initial observation to a known reshift value.
Then larger and smaller objects have their redshift value determined and the results collated.