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[darkspeed]

Did you mean Virtual Bremsstrahlung? Beware of the Proton

or polarization bremsstrahlung radiation (PB)


>>  http://www.kvi.nl/~fewbody/html/paper/p2649_1.pdf

Let me guess... braking radiates electrons? Stay at sub-xray levels if its on your build list..

3kv is a good range. I always stay below 5kv unless im shielded.. I do want to have children one day... normal children...

[Grumpy]

Did you mean Virtual Bremsstrahlung? Beware of the Proton

or polarization bremsstrahlung radiation (PB)


>>  http://www.kvi.nl/~fewbody/html/paper/p2649_1.pdf

Let me guess... braking radiates electrons? Stay at sub-xray levels if its on your build list..

3kv is a good range. I always stay below 5kv unless im shielded.. I do want to have children one day... normal children...

I noticed some similarities between RE and Braking Radiation a while back.   Solar flares and Breaking Radiation both exibit full spectrum radiation.  Very little info available on the displacement current involved with these effets.

Now, braking electrons (slowing) emmit radiation, so what does braking displacement current emmit?  (by using the term "displacement current", I am including all polarization currents)

[forest]

I noticed some similarities between RE and Braking Radiation a while back.   Solar flares and Breaking Radiation both exibit full spectrum radiation.  Very little info available on the displacement current involved with these effets.

Now, braking electrons (slowing) emmit radiation, so what does braking displacement current emmit?  (by using the term "displacement current", I am including all polarization currents)

Exactly what I'm asking also. Additionally braking electrons generate X-Rays, but what about braking protons ?

[Grumpy]

A displacement current is equivalent to a moving charge even though it does not require a particulate carrier, so it MUST exibit a radiating effect when it is moving at great velocity and then encounters a path of high impedance.  Or it could be the dragged electrons (which I do not agree with) that are exhibiting the effect (I doubt it).

Hence the need for low self-capacitance and high self-inductance in the load and the need for the shockwave effect before the load.

Hacking through the BS is not easy.

Anything that increases the polarization (and therefore the density) of the medium, increases the effect and there lies the problem.  I can't prevent other things from effecting the process.  At least not yet...

EDIT:
http://74.125.113.132/search?q=cache:KyLyEznOnWgJ:oak.cats.ohiou.edu/~piccard/radnotes/artificial.html+braking+radiation+virtual+photons&cd=3&hl=en&ct=clnk&gl=us

[darkspeed]

Your not going to like this answer because it is not proven, its just what iv been kicking around in my brain related to other research.

An electron at rest at quantum level looks like two wave forms inverse and superimposed - ball form
As an electron get closer to the speed of light this wave from will reduce in amplitude, increase in length - flattens out into a string

Take the end of a wire, at high dc bias, and slam another wavefront down it. The electrons at the end get ejected at a critical level near or at the speed of light ( some think faster ). These electron strings are of a shape and velocity as to not only pass through metals (until they are slowed down by eddys) but also to create a delta shaped disturbance in the metal much like breaking the sound barrier displacing MANY electrons in its wake. I give it a high chance of being correct

There is a faster than light version of this that involves superposition where we see an electron moving faster than light as a series of balls ( points on a wave ) and as each superposition passes through the metal a delta is created . one electron = many events. I gave it a much lower chance of being correct