Site Introduction (2012): This website is primarily on the subjects of truth and reality. We get about 600,000 page views each week and are one of the top philosophy / physics sites on the Internet. The central thesis is best stated in three parts;

i) We must know the truth to act wisely, and truth comes from physical reality.

ii) Our present and past societies are not founded on truth and act unwisely (overpopulation, destruction of nature, pollution, climate change, religious and economic wars, etc.).

iii) We now know the correct language for describing physical reality (all matter interactions are wave interactions in space), and this knowledge is critical for our future survival, being the source of truth & wisdom.

So how do we prove that this is true? Everyone will agree that

Thus by 1900 the central concepts of Physics were;

Continuous electromagnetic fields

Over the next 30 years

Most importantly, this Dynamic Unity of Reality provides simple solutions to all the 'strangeness' of quantum physics that has resulted from this discrete / disconnected 'particle' conception of matter.

i.e.

I realise this is a pretty abrupt / radical introduction to a new way of seeing things - that it will take some time to adjust. But the Wave Structure of Matter is simple sensible and obvious once known. Each Quantum Physics page has a short summary and important quotes, so it is easy to click around and confirm things for yourself. Enjoy! Think!

Geoff Haselhurst - Email - Nice Letters. - Share this Knowledge

In a time of universal deceit - telling the truth is a revolutionary act. (George Orwell)

You must be the change you wish to see in the world. (Mohandas Gandhi)

All that is necessary for evil to succeed is for good men to do nothing. (Edmund Burke)

Hell is Truth Seen Too Late. (Thomas Hobbes)

The world thus appears as a complicated tissue of events, in which connections of different kinds alternate or overlap or combine and thereby determine the texture of the whole. (Heisenberg, Physics and Philosophy, 1963)

I have added below three short deductions / explanations of Heisenberg's Uncertainty Principle from Wave theorists, Mike Harney, Milo Wolff, and Chris Hawkings. The significant point of this is that by removing the 'particle' conception of matter and replacing this with the Wave Structure of Matter we can deduce the Uncertainty Principle due to the spatially extended wave nature of matter. The confusion and paradox of Quantum Theory results from the incorrect discrete 'particle' conception of matter. As Hawking writes;

But maybe that is our mistake: maybe there are no particle
positions and velocities, but only waves. It is just that we try to fit
the waves to our preconceived ideas of positions and velocities. The resulting
mismatch is the cause of the apparent unpredictability. (**Hawking**,
1988)

Geoff Haselhurst

**by Michael Harney, June 10, 2005**

The following is a derivation of Heisenberg's uncertainty principle based on the discrete nature of standing matter-waves. It will be shown that the uncertainty principle is simply due the quantization of matter based on the discrete nature of standing waves which can only have frequencies that are integer multiples of a fundamental harmonic frequency. This discrete nature leads to a lack of the existence of matter in the domain where n is not an integer because there are no standing waves present when n is fractional, and this has been misinterpreted as uncertainty in measurement.

First we assume standing matter waves which start with fundamental wavelength
R equal to the Compton wavelength of the electron, R = 2.4 x 10^{-12}
meters. Then all other standing waves have wavelengths as follows:

l = R/n , (1)

where n is the quantum number governing the number of nodes in the standing wave. Also, the energy in the standing wave is found from the solution to Schrodinger's equation for a two-dimensional wave trapped in an infinite-potential well:

E = [(n_{x})^{2} + (n_{y})^{2} ]p^{2}h^{2}/(8mR^{2}),
(2)

Where E is the energy in the wave, n_{x and }n_{y} are
the quantum numbers governing the nodes in the two-dimensional wave, and
m is the mass of the 'particle' or wave center represented by the fundamental
wavelength (when n_{x and }n_{y} are equal to 1). The mass
m for the fundamental wavelength can be found by setting the quantized energy
of the fundamental wavelength (using equation 2, setting n = 1) equal to
the rest-energy of the 'particle' or wave-center that is represented by
this fundamental wavelength:

2p^{2}h^{2}/(8mR^{2})
= mc^{2} (3a)

Solving, we find m = 7.2 x 10^{-31} Kg, which is very close to
the measured electron mass of 9.11 x 10^{-31} Kg.

If we now picture the standing wave of particular quantum numbers n_{x
and }n_{y} we assign n_{eff} as the square root of
the sum of the squares of the n_{x and }n_{y} so that n_{eff}
represents the effective quantum number, or a composite of n_{x and }n_{y}.
Then we know that when the standing wave changes its quantum numbers n_{x
and }n_{y} by 1, it will effectively change n_{eff}
by one and this is described as D n_{eff},
the change in effective quantum number either up or down by 1. Then equation
2 above produces an incremental change in energy, D
E, for an incremental change in n_{eff} (which is D
n_{eff}) results in the following:

D E = (D n_{eff})^{2}
p^{2}h^{2}/(8mR^{2}),
(3)

Time is what we perceive from the flow of matter, and therefore from the
change in matter waves. As matter waves change incrementally in n_{eff}
(D n_{eff}), not only does their energy change, but so does their
wavelength from the formula:

l = R/n

The change in l with respect to n, which we
denote as D l is found
by differentiating the l formula (1) above with
respect to n_{eff} to produce:

D l = 2 R/(D
n_{eff})^{2} , (4)

As l varies (D l) we find that the perception of time also varies based on

D t = D l /c , (5)

where c is the speed of light and the speed at which the matter wave propagates
through the space-fabric. Now, based on an incremental change in effective
quantum number (D n_{eff}) which produces
an incremental change in energy (D E) and an
incremental change in wavelength (D l)
which also produces an incremental time shift (D
t), we ask the question, what is the minimum product of change in energy
(D E) and perceived change in time (or time shift
of matter wave, D t)? It is known as (D
E)(D t) which will be recognized as Heisenberg's
uncertainty relationship. When we substitute the formulas (3), (4), and
(5) above in for (D E)(D
t) we get:

(D E)(D t) = [(D
n_{eff})^{2} p^{2}h^{2}/(8mR^{2})][
2 R / (c(D n_{eff})^{2})]

which reduces to

(D E)(D t) = p^{2}h^{2}/[4mRc]

where h = Planck's constant, m = 7.2 x 10^{-31} Kg, R = 2.4 x 10^{-12}
meters, and c = 3 x 10^{8} meters/sec. This then evaluates to,

(D E)(D t) = p^{2}h^{2}/[4mRc]
= 2.1 x 10^{-33} J-sec = approx. h

which is three-times the measured value of Planck's constant (less than order of magnitude).

This shows that an increase in energy which is due to an increasing n (equation 2, which also shows an increase in mass, equation 3a), causes a decrease in D t (eqs. 4 and 5 combined), which makes (D E)D t constant. Therefore, Heisenberg's uncertainty principle is derived from assuming a standing wave formula for all masses (with n = 1 corresponding to l = R = electron matter-wavelength) and applying Schrodinger's equation to calculate the energies in the standing waves.

Heisenberg's uncertainty principle is not a probability function as previously interpreted, but a limit on how much energy and perceived time shift is changed when quantum number n is changed incrementally. It is incorrect to say that we cannot measure energy and time within certain limits (or momentum and distance within certain limits). It is more accurate to say that the standing wave function does not exist in between incremental changes of quantum numbers, and that there is no wave function valid for fractional quantum numbers. For example, going from n = 300 to n = 301 is a valid change in the energy and time displacement of the standing wave function, but there is no measurement possible for n = 300.5 because the standing wave function is not valid in this respect. Therefore, measurement of the function does not and cannot occur. But there would be nothing to measure if we could go to this level - there is no way for the standing matter wave to exist at n = 300.5. Heisenberg's uncertainty principle is merely a limit on the nature of standing waves based on integer quantum numbers. We perceive this to be the limits of what we can measure, but it is only what can really exist.

You can't have it both ways!

**(Milo Wolff, Exploring the Physics of the Unknown
Universe, 1994)**

Early in the history of Quantum Mechanics, Werner Heisenberg proposed a principle which states limitations on the accuracy of physical measurements. He stated that Nature imposes a minimum value, Plank's constant h, for the product of the errors when measuring position, Dx, and momentum, Dp, when both are measured together. The is usually written

Dx Dp = h

This idea created a great deal of controversy, since it says that nothing is certain - there is always an error in measurements today and these errors will grow larger tomorrow. His principle expanded into discussions of the nature of destiny, religion, and determinism. The philosophers had speculation sessions for decades!

In hindsight his principle is not mystical but obvious to anyone who studies the properties of waves since it has turned out that the principle is a simple property of a wave train and not dependent on QM. It works as follows:

Suppose we have drawings of two wave trains, a) and b) as in Figure 9-6. The length Dx, of the train at a) is long and it's dominant wavelength l can be accurately measured because there are lots of nodes to use. The length of the train at b) is short and the few nodes mean that the dominant wavelength l can be determined only poorly. It is clear that: if the train size is small, the error of wavelength is large. This fact can be put into mathematical terms,

error of wavelength = Dl / l = 1/(number of nodes), and

the number of nodes = the train length / wavelength = Dx / Dl

Put these two equations together and get;

Dx Dl
= l^{2} (9-4)

which says the same as the sentence above. i.e. the product of the two
errors is a constant, l^{2}.

Fig. 9-6 Errors of measuring wavelength

If you wish to accurately measure the wavelength contained in a train of
waves, you need to have a large number of nodes to count. The more the nodes
the more accurate is the measurement. Thus the accuracy of measuring the
long wave-train at (A) is about ten times better than at (B). This fact
can be used to demonstrate the truth of the Heisenberg Uncertainty Principle
Dx Dp = h

This result can be easily translated into the Heisenberg Uncertainty Principle
because of two relations:

1) Dx is the same as the error of position of
a particle in the wave.

2) The wavelength is related to particle momentum through the de Broglie
relation l=h/p. Switch the l
variable into the momentum p, by using the calculus of Chapter 2 to find,

Dl = Dp
l^{2}/h

Substitute this into Equation (9-4) to get Dx Dp = h, the Heisenberg Principle. This is what we wanted to prove.

There is another version of the Uncertainty Principle which says that the product of error of time Dt, and the error of energy DE, is also equal to Plank's constant, or

Dt DE = h

You have probably already guessed that this one can be obtained from Equation (9-4) too, by using the relation E = hf. Correct guess.

The uncertainty principle states that if you know the momentum of a particle perfectly, then you can have no knowledge at all of the position. This is because a perfect momentum measurement implies an infinitely long wave, so the particle could be anywhere. Similarly, if the energy is exact, you can have no knowledge of the time when it got there.

The philosophical consequences of this principle depend on whether or not you believe there is actually a 'point particle' somewhere inside the quantum wave. If you say 'yes' then the conclusion must be that Nature, via Quantum Mechanics, imposes a fuzziness on our ability to determine the location of otherwise precise points. If you say 'no' then the conclusion is that the wave packet itself is the 'particle', sometimes smaller, sometimes larger. Then the fuzziness is the character of the 'particle' (as a spherical standing wave), not our ability to find it.

There is one final important difference between the quantum waves and the more familiar light or water waves. It turns out you must often use complex numbers for the wave functions Y. When working with ordinary waves, the complex numbers make the algebra easier. Then when you are done you can go back to real numbers by taking the real part. But for mysterious reasons, the complex numbers are often necessary in QED to get the right answers. No one knows why.

**By Chris Hawkings**

From article at http://www.spaceandmotion.com/chris-hawkings-wave-theory.htm

Figure 1

Impression of a typical particle in cross section,
showing shells

of high electromagnetic energy density surrounding a central core.

The radial fall-off of the wave's energy density ensures that the particle
has no well defined boundary, as shown in figure 1. This poses the difficulty
of establishing when a particle is *completely *detected. Clearly,
a particle's detection cannot occur unless its source/sink is absorbed;
we take this as the definition of particle detection.

From figure 4, the source/sink is confined to the region of the central core. Thus, particle absorption (source/sink absorption) is assured only with the complete arrival of the central core. For this to occur, the time, , during which the detector is switched on must equal or exceed the time, , it takes for the central core to arrive at the detector (i.e. ). The longitudinal width of the central core is given by and is related to and the group speed, , by . Using these three expressions and , we obtain

(23)

Figure 4

Detector must be on for a time, *D**t*, greater than the time,
*T _{g}*, of total reception of the central core at the detector
(i.e.

The distance, , over which the particle travels while the detector is on must also equal or exceed the core width, , if absorption is to be assured (i.e. ). Thus,

(24)

Pinpointing the source/sink might be regarded as certain to within the half-width of the central core, in which case the right-hand-side of (23) and (24) becomes . In either case, both the formalism and interpretation here are similar to those of the uncertainty relations.

In accordance with this principle, at rest is zero and is undefined, as expected. There is, however, one significant difference. At rest, is , placing an upper limit on equal to the Compton wavelength, . In other words, the source/sink at rest cannot be located within a region, in absolute terms, smaller than this value. This is because smaller sizes would not include the entire central core. Heisenberg's principle, of course, places no such limit, upper or lower, on . This may allow the Compton wavelength to serve as the standard way of expressing the size of all particles at rest. For the proton, this value is 1.321 fm.

Results of p-p scattering at 90^{o} found by Akerlof (1966) [12]
reveal, for the proton, a central core of radius 0.33 fm and two outer shells
at 0.50 fm and 0.92 fm from the centre. The spherical shells predicted by
equation (5) are found by maximising
. These maxima/minima occur (due to the
factor) at
, where
is an integer. Using the Compton wavelength, 1.321 fm, and enumerating
for
1, 2 and 3 yields
0.329 fm,
0.659 fm and
0.898 fm. Although a number of interpretations for the scattering results
are possible, the correlation between measured values and those predicted
by equation (5) are surprisingly consistent, especially considering that
the amplitude function
played no role in the calculations. Radial fall-off might explain non-detection
of further layers beyond
. Electron scattering experiments suggest a picture of the electron that
is more akin to a 'fuzzy' point particle and which does not appear to possess
the onion skin layering typical of the proton. This is not inconsistent
with a particle of very small 'rest mass' (long Compton wavelength), whose
energy density distribution is similar to that of figure 1. In this instance,
the broad central core and shells of low energy density could readily account
for the poor definition, point-like appearance and non-detection of onion
skin layering.

(Note from Geoff Haselhurst - The figures in this final article from Chris Hawkings are images, as this is how I formatted his full article. See http://www.spaceandmotion.com/chris-hawkings-wave-theory.htm)

Philosophical / Metaphysical Comments

**by Geoff Haselhurst**

The following thoughts seem to me to be direct consequences of the Metaphysics of Space and the Wave Structure of Matter.

1. There is no discrete particle thus it is impossible to locate the exact position of something that does not exist (the continuous motion of a 'particle').

2. Motion only applies to the Wave Motion of Space, not the Motion of 'Particles' (or motion of matter in general, as Space is the only existent) thus it is impossible to know the exact momentum of a particle as neither 'particles' or particle velocity (and thus momentum) exist. They are mathematical constructions, and only approximate the real Wave Structure of Matter. Matter actually 'moves' in discrete steps as successive Spherical In-Waves meet at their Wave-Center in discrete locations in Space. So it turns out that Einstein was correct, as he writes;

Thus the last and most successful creation of theoretical physics, namely quantum mechanics (QM), differs fundamentally from both Newton's mechanics, and Maxwell's e-m field. For the quantities which figure in QM's laws make no claim to describe physical reality itself, but only probabilities of the occurrence of a physical reality that we have in view. … I cannot but confess that I attach only a transitory importance to this interpretation. I still believe in the possibility of a model of reality - that is to say, of a theory which represents things themselves and not merely the probability of their occurrence. On the other hand, it seems to me certain that we must give up the idea of complete localization of the particle in a theoretical model. This seems to me the permanent upshot of Heisenberg's principle of uncertainty. (Albert Einstein, 1954)

A few further thoughts;

3. It seems to me that Schrodinger's Equations are founded on de Broglie
Matter Waves.

Therefore, Schrodinger equations are not fundamental (as de Broglie waves
are Doppler effect / phase wave of two relatively moving spherical (ellipsoidal)
standing waves - the real cause of matter and its interactions).

Then I read that Dirac effectively divided Schrodinger's equations into
two parts (Milo Wolff has a good section on this in his book) - which according
to my logic above is correct (though he did it by chance). Thus I am thinking
that wherever you use de Broglie waves, you should really substitute in
the real wave equations for two spherical standing waves with relative motion
which deduce the de Broglie waves. Does this make sense, is it possible?

4. Problems with Wave Velocity not being Constant

In modern physics the velocity of light c is treated as a constant, rather
than (I think) being dependent on wave amplitude (charge) and mass-energy density
(gravitational mass). I also think though, that due to wavelength changes
with wave velocity the velocity of light is always measured to be the same
(a subtle but important difference from being constant, which is a theoretical
interpretation of the empirical fact that the velocity is measured to be
the same).

Further, the de Broglie wave is a phase wave, caused by matter wave interactions,
and has a phase velocity of c^{2}/v where v is the relative velocity.
Thus you are effectively working with two different velocity waves.

It is interesting too that when you substitute this phase wave velocity into the energy = frequency equation for matter you get the de Broglie equations, i.e. We first deduce Compton wavelength by relating frequency of matter to energy of matter (as you know)

E = hf = mc^{2}, and c = f l,

hc/l = mc^{2}

Thus Compton Wavelength l = h/mc

We can then recalculate above for de Broglie phase wave velocity c^{2}/v
= f l, where v is group velocity which I assume
is same as apparent velocity of 'particle'.

E = hf = mc^{2}, and c^{2}/v = f l,

hc^{2}/vl = mc^{2}

Thus de Broglie Wavelength l = h/mv

This seems to confirm the correctness of the phase wave velocity of de
Broglie waves (and is the limit of my maths!, is it correct). Any thought
on this? Thanks.

Geoff

Mike Harney writes;

Dear Geoff,

Thanks again for the interesting read on the uncertainty from yourself,
Milo Wolff and Chris Hawkings. It seems like we all find an easy explanation
if we talk about matter waves as opposed to particles. How can a particle
be in two places at the same time? It can't - only a wave can do this. Also,
I started thinking about Chris' explanation of the onion shells. It does
make sense that a proton will have more shells and an electron is fuzzy.
The electron with fundamental wavelength (n=1) will have one very indiscrete
shell and the proton with n = 1734 with many shells is consistent with this
effect.

Schrodinger's equation relates a wave (it's our assumption that it's de Broglie waves, and it appears to be a good one) to time and space displacement. The equation itself is fundamental - there is as of yet no way to reproduce Schrodinger's equation based on WSM that I have seen (as there is as of yet nothing I have seen that describes Maxwell's equations in terms of standing wave theory - it's probably possible but nobody has found it to my knowledge). If you do see Maxwell's equations in terms of spherical standing waves please let me know - it does sound intuitive but I have yet to see formulas. I believe the combination of the uncertainty principle and the fact that Schrodinger's equation is a wave equation pretty much describes all of quantum mechanics in terms of WSM. But the key is getting away from probability and uncertainty - this is how I think the uncertainty principle relates to standing matter waves. The derivation (above) does show a pretty good match to Planck's constant - more than a coincidence!

The one thing that still comes back to me is that as there are standing
matter waves that create our masses, the waves must be undergoing compression
and tension in this fabric. The nature of the compressibility of this fabric
is what truly interests me because I believe it is the key to how the waves
interact and this in turn governs all of our universal constants. Also,
the question of the what is the fabric and what makes it compressible is
exciting - how does this really occur? We don't believe in a mystical nature
for waves (tossing out the Born interpretation of Schrodinger) so it must
still be a fabric in compression or tension in order for wavelengths to
shift, for wave-centers to be elongated, etc. This is all just classical
wave mechanics which means space really behaves like a material, a continuous
medium of some sort.

I think this may be the solution to what Milo is looking for in relating
WSM to nuclear fusion.

Equations 15-22 in http://www.signaldisplay.com/debroglie.html
show this relationship between the strong-nuclear interaction and it's range.
I believe the short range of the strong nuclear force is due to being on
the "knee" of the elastic-potential energy curve for the fabric
of space. Once we understand how this works, controlling it should be much
easier. It's also interesting that the Newtonian force law of 1/r^{2}
which is so prevalent in keeping field theory alive is really just proportional
to an x-displacement squared (kx^{2}) and this is more accurate
for explaining interaction of waves from very large distances to very small.
Thus, the field concept is keeping theorists from uniting gravity (even
General Relativity's version of gravity) with nuclear interactions. No wonder
they are frustrated - the 1/r^{2} breaks down very quickly at small
r (hell - it becomes a singularity!). No way to do it with the continuous
field concept - they must adapt wave interaction and compressibility of
space.

Thanks for the interesting articles.

Mike Harney

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