... I previously shared the paper below, perhaps it could seed your ideas even if it is about optical light...
In http://arxiv.org/abs/1603.07224 Photon mass drag and the momentum of light in a medium
...
X_Ray, perhaps you can perform a sim for me with your FEKO lite (it doesn't appear to be too complicated) I'm sure you'll let me know though if it is. Attached you will find a quite flat frustum, which I imagine would be easy enough to work in your system. There may be a problem with the antenna though, because it/they are the same HDPE disks used in the NASA frustum and so thick. Since the frustum is so short, they are placed above as you see in the diagram. If your FEKO lite can work with this, I'd appreciate your giving it a try, and see if and how this cavity might resonate. I'd PM you with this, however it isn't possible to attach diagrams et al. in the PM function. The starting frequency is 1.8804 GHz and power starting at 2 Watts. Thank you , FL

Hi Dr. Rodal, not a take on Cannae. Am interested to see how the NASA frustum might resonate if flattened---The volume of this cavity is identical to the NASA frustum top and bottom lengths determined by adding the original height to the bottom lengths. The height is that which achieves the same volume. The HDPE disks are taller/higher than the frustum itself as drawn and were therefore placed where you see them in the diagram (facing the inside). Does placing the disks in this location pose a problem? If so, do you have a suggestion as to what should I do to rectify it/this? Thanks, FL
PS: since this is a given quantity in it's original form, it might indeed be telling if "good" resonance were noted in the flattened form (similar to Cannae in the flatness, but the asymmetric components are located in the periphery) ,K
X_Ray, perhaps you can perform a sim for me with your FEKO lite (it doesn't appear to be too complicated) I'm sure you'll let me know though if it is. Attached you will find a quite flat frustum, which I imagine would be easy enough to work in your system. There may be a problem with the antenna though, because it/they are the same HDPE disks used in the NASA frustum and so thick. Since the frustum is so short, they are placed above as you see in the diagram. If your FEKO lite can work with this, I'd appreciate your giving it a try, and see if and how this cavity might resonate. I'd PM you with this, however it isn't possible to attach diagrams et al. in the PM function. The starting frequency is 1.8804 GHz and power starting at 2 Watts. Thank you , FL
Morning coffee thoughts.
Some theories think that they increase the effective mass of the photon shifting the center of mass within the frustum leading to the effect we are seeing.
If that was the case we would see on a torsional pendulum an effect we could set up to see a defection of a laser. It would take a beam 90o splitter on the frustum and a laser on the fulcrum center pivot wire.
It would seem we're not testing all the axis's possible directional motions addressing the several theories put forth in a test.
Any thoughts?
Shell
edit
Morning coffee thoughts.
Some theories think that they increase the effective mass of the photon shifting the center of mass within the frustum leading to the effect we are seeing.
If that was the case we would see on a torsional pendulum an effect we could set up to see a defection of a laser. It would take a beam 90o splitter on the frustum and a laser on the fulcrum center pivot wire.
It would seem we're not testing all the axis's possible directional motions addressing the several theories put forth in a test.
Any thoughts?
Shell
edit
I was going to take a poke at what your saying Shell. That the laser light might get heavy as it passes through the cavity and change the path of the laser? The only problem might be that the laser light is a different frequency than the microwave light. If the more massive light had to do with the cutoff frequency via the dimensions of the cavity at the narrow end then it would be an effect of the wavelength. I have a feeling I am not really understanding what your trying to say though.

Same kind of experiment as the last video but with a cylindrical coil. As expected there's no linear movement.
Inventor D. S. Charrier with links to his publications. We've talked about his micronewton electromagnetic thruster before. Doesn't look like it works. Maybe it should be a cone.
http://scitation.aip.org/content/aip/journal/apl/101/3/10.1063/1.4737940
http://dscharrier.free.fr/publications.html
Same kind of experiment as the last video but with a cylindrical coil. As expected there's no linear movement.
Inventor D. S. Charrier with links to his publications. We've talked about his micronewton electromagnetic thruster before. Doesn't look like it works. Maybe it should be a cone.
http://scitation.aip.org/content/aip/journal/apl/101/3/10.1063/1.4737940
http://dscharrier.free.fr/publications.html
Looks like an electromagnetic "compass" to me, with the coil duty cycle tuned to pendulum torsion resonance.
Same kind of experiment as the last video but with a cylindrical coil. As expected there's no linear movement.
Inventor D. S. Charrier with links to his publications. We've talked about his micronewton electromagnetic thruster before. Doesn't look like it works. Maybe it should be a cone.
http://scitation.aip.org/content/aip/journal/apl/101/3/10.1063/1.4737940
http://dscharrier.free.fr/publications.html
Same kind of experiment as the last video but with a cylindrical coil. As expected there's no linear movement.
Inventor D. S. Charrier with links to his publications. We've talked about his micronewton electromagnetic thruster before. Doesn't look like it works. Maybe it should be a cone.
http://scitation.aip.org/content/aip/journal/apl/101/3/10.1063/1.4737940
http://dscharrier.free.fr/publications.html
Fascinating video. It's always fun to see what an experimenter has come up with. I agree with what rq3 and Mullertron have said. This is a compass on a pendulum. No linear force can be generated with this kind of apparatus.