Wintermute11,
When you say "One of your biggest mistakes that you repeatedly use even after I told you about it, is that you incorrectly assumed that the E in "Em/Bm=c" is energy," you are really misreading what I wrote (General Discussion/Magnetism vs. Gravity/pg. 6/ August 9, 2003: http://www.space-talk.com/ForumE/showthread.php3?threadid=1240&pagenumber=lastpage ). I was careful to show how Em * c = E, not what you are saying above. Of course, if we cannot equate the E's (not Em's!), then physics is incomplete.
I appreciate your effort in trying to explain my errors, but they are not what you think since you misread what I wrote, as just shown. My thesis is based on the equality of Energy, and its various expressions. If the separate expressions for Energy are wrong, then the equation makes no sense. But if they individually are correct, then an equation based on the equality of Energy should work.
Referencing current physics books is good, and basic physics should be understood, but not to blindly accept theory, which is not fact, nor to expect to find all the answers there. If they were, we today would not be in the physics confusion we've had for the past 100 years. You must admit that engineers do not use GR or SR or the Standard Model in their work when they send probes into space... or point missiles at each other. Newtonian physics works, but it does not explain the anomalies of deep space. The Axiomatic takes it into deep space.
In response to your: " It seems we can't finally decide which unit of measure to use, and which notation to use. The physical relationships are the same." This is key, that we need universal units. If there is a common thread of Energy throughout physics, from subatomic to astronomy, and if the individual expressions of E are correct, then stringing these expressions into a master equation, with the results worked out in SI Base Units: meters, kilograms, and time, should work. And this would also be key to understanding physics at a distance, where we cannot go yet, and make sense of black holes, dark matter, fast spinning neutron stars, Oort clouds, etc.
So, I assure you that I am NOT equating Em and E, not the case at all.
I hope this helps explain the equation better. I think what needs to be challenged, seeking errors, should focus on either mathematical error, or where a component of each sub-equation does not represent E = Energy. That would kill the equation, if some part of it is not = E. For example, some possible weaknesses: can mass be both m = 1 and m = 0? And if m = 1, can it also be written as a representation of its gravitational force = g constant (in units of proton to proton gravity relationship, not same as Newton G), so that: m = (m-g)? These are clearly points of contention, as they should be, since this is where we depart from textbooks and venture into a "new physics". It is the same for magnetic force B, where m = (0+Bm). The key is that for it to work, and it has to have verifiable and predictable results (see bottom of copy below). In Em/Bm from Hyperphysics page, I believe the "m" stands for Maxwell's.
Let me break it down to perhaps the simplest level I can (this was actually posted elsewhere):
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ENERGY'S AXIOMATIC EQUATIONS?
1. Energy is the basic common denominator of known physics, as
eloquently expressed by Einstein's famous equation: E = mc^2
2. Energy can also be expressed (DeBroglie) as: E = hc/L , where h =
Planck's constant, c = light velocity, L = photon lambda, so that we
can say:
E = hc/L = mc^2
3. Now, if light is an electromagnetic phenomenon, the we can also
say (per Hyperphysics:
http://hyperphysics.phy-astr.gsu.edu/hbase/waves/emwv.html -and-
http://hyperphysics.phy-astr.gsu.edu/hbase/electric/elefie.html), per
Maxwell's equation:
Em/Bm = c , and c = 1/(eo mo)^1/2
so that magnetic value times lightspeed: Bm * c = Em, its electric
value equivalent.
The question then becomes, can this equation be raised to the level of
Energy?
4. A way to do this is to multiply Em by lightspeed, so that:
Em * c = (Bm)c^2, which says that an electron accelerated to
lightspeed is energy, which if so gives us:
Em * c = (Bm)c^2 = E
5. Combining the above into a continuous equation gives us:
Em * c = hc/L = h/L(eo mo)^1/2 = (Bm)c^2
6. However, this is a still incomplete equation, taking E = mc^2, we
then have:
Em * c = hc/L = h/L(eo mo)^1/2 = (Bm)c^2 = mc^2 = E
* * *
Now, this last continuous equation gives us a way to interrelate
electric field, magnetic field, Planck's constant, photon lambda, and
mass, all as Energy. This looks like a rather unifying equation for
these forces, except gravity is still missing. The way to solve this
(and here we are treading on new and dangerous ground) is to give mass
a gravity and magnetic value.
If we set mass as m = 1, to represent one hydrogen atom, which is an
incomplete value, since from it is missing a gravitational constant,
which is represented here as negative g = 5.9x10^-39, a negative
remainder from how the atom is formed, so that mass is now expressed
as: m (gravity/kilograms) = (1-g)
(as per Gravity Force Coupling at:
http://hyperphysics.phy-astr.gsu.edu/hbase/forces/couple.html which
is not the same as Newtonian G)
Likewise, if we set mass for magnetic, then the internal atomic
positive and negative magnetic charges equal zero, m = 0, except for
the atom's magnetic remainder, which here is set as a positive value
at m = (0+Bm). Therefore, m (magnetic potential) = Bm
(This can further be illustrated with E/c^2 = m, which is now E/c^2 =
Bm, which translates into E = (Bm)c^2, as per #4 above.)
7. So, in taking the energy continuous equation to its conclusion,
using the new values for mass, we get:
Em * c = hc/L = h/L(eo mo)^1/2 = (Bm)c^2 = (1-g)c^2 = E
which now represents an Axiomatic Equation for Energy including
electric field, magnetic field, light speed, Planck's constant, photon
lambda, mass, and gravity. (Please note the gravity constant is not
Newton's Gravity, for it is a proton to proton value, which needs to
be converted further to become Newton's G.) This axiomatic equation,
with conversions and SI Base Units values (meters, kilograms, time),
was developed more extensively at:
http://www.humancafe.com/cgi-bin/discus/show.cgi?84/108.html
I am posting this equation here to solicit reasonable feedback. Is
energy universal? Can it be expressed as per the 7 equations listed
above? If not, where lies the error? Is is not all Energy?
The conclusion (speculative at this point) from how this axiomatic
equation is written is that electromagnetic energy and gravity become
inversely proportional to the energy environment within which they are
measured. This may mean, a possibility only, that gravity density
around Pluto will be greater than that of Mercury, which would then
mean that in using the Orbital Equation: v^2*R = GM, yields for us a
mass reading that may be inaccurate, since we had always assumed G to
be constant. Of course, if it is not constant, then the mass values
must represent something else, which may mean that Pluto is perhaps
really a dirty water ice-ball planet, whereas Mercury is nearly all
metallic.
The other ramification from this equation is that if photon lambda is
totally canceled out, gravity g reaches its maximum value (from 0 to
1) of g = 1, which means total gravity takes over, mass ceases to
exist, light ceases to exist, all is left is gravity... like a black
hole. So these equations may be important, if true, since it would
give us a new perspective on universal gravity (not equally constant)
and provide a way to solve for various components of the equation in
relation to each other.
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Come on, on a scale of 1 - 10, I gotta get at least a 3!
C2 
__________________
I have formally 'resigned' (tactical withdraw) from the Space-Talk boards; mine were many questions, ideas, but no real answers. Thanks. 04/10/04.
Disclaimer: Please note the ideas expressed here by me are cutting edge theory, very speculative in nature, and not physics as it is being currently taught. Caveat lector.
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