James Paul Wesley - Detailed Bibliography and PDFs
PUBLICATION Title |
Year |
Month |
Publisher |
Abstract |
Conclusion |
Keywords |
Ref. Vol. |
Issue No. |
Page |
doi/
Other Ref. |
Doc. Ext. Link |
PDF |
The Weber Cosmological Condition and Wesley Gravitation |
2001 |
June |
Physics Essays |
Weber electrodynamics predicts the Kaufmann-Bucherer experiments and the fine structure energy level splitting of the H-atom (neglecting spin) without mass change with velocity (i.e., mass ≠ m0 /√(1 − v2/c2). The Weber potential for the gravitational case yields Newtonian mechanics, confirming Mach's principle. It provides a cosmological condition yielding an estimated radius of the universe of 8 × 109 light years. Despite these successes, the independent evidence for Kaufmann mechanics, where mass changes with velocity (i.e., mass = m0 /√(1 − v2 /c2) is convincing. Perhaps a slight alteration may make the Weber theory compatible with Kaufmann mechanics. [ABSTRACT FROM AUTHOR] |
The Weber Cosmological Condition and Wesley Gravitation – placeholder. |
Key words: Weber gravitation, Wesley gravitation, Mach's
principle, electrodynamics, Weber theory, Kaufmann experiment, Mach's
principle confirmed, radius of universe, Kaufmann mechanics evidence for |
14 |
2 |
160-163 |
doi:10.4006/1.3025476 ISSN: 0836-1398 |
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The Horizontal Electric Dipole in a Conducting Half–Space |
1953 |
September |
Scripps Institution of Oceanography, UC San Diego |
This report gives a thorough and complete account of the mathematical problems involved in the determination of the electromagnetic field components generated by a horizontal electric dipole embedded in a conducting half-space whose plane boundary is also horizontal. The problem is formulated by introducing the Hertzian vectors or polarization potentials and employing the technique of triple Fourier transforms in Cartesian coordinates, in configuration space as well as in transform space. Suitable integral representations are obtained for the components of the Hertzian vectors. It is shown that this formulation is fundamental in the sense that it contains 'per se’ all other known formulations of the problem. Thus, by suitable transformations of the variable or variables of integration one readily obtains the formulations of Sommerfeld (1909), Weyl (1919), Ott (1942), etc. Further, by correctly specifying the original path of integration in Sommerfeld’s formulation of the problem and by carefully analyzing the class of permissible deformations of the original path, the whole moot question of poles and residues is clarified in a straightforward manner. The report also presents the complete independent solution of the static problem and it is shown that all solutions for the alternating case converge uniformly to the static solutions as the frequency is made to vanish. Further, the static solution is applied to an extended source pointing out the way for a similar extension of the alternating dipolar solution. The Cartesian components of the Hertzian vectors and the cylindrical components of the field vectors (E and H) are given, for both media, in terms of four fundamental integrals, which are expanded in asymptotic series by saddle point methods, two of these integrals belonging to the conducting medium and the other two to the free space above. It is shown, in the treatment of each of the four integrals mentioned, that there are two distinct asymptotic contributions arising from two saddle points and the notable feature of the results is that one of the saddle points yields a solution which is not exponentially attenuated in the horizontal direction in accordance with known experimental results. Thus, the possibility of large ranges of the field in the horizontal direction at depths which are not too great is clearly established. [ABSTRACT FROM AUTHOR] |
The Horizontal Electric Dipole in a Conducting Half–Space – placeholder. |
Key words: conducting half-space, horizontal electric dipole |
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Thermodynamic estimate of the likelihood of life in the solar system |
1967 |
August |
Elsevier: Journal of Biosystems |
Life is taken to be a property of open thermodynamic systems which reduce the entropy of compounds taken from the environment. To support entropy reducing processes an environment must increase the entropy of the universe with time, the greater such entropy production the greater the likelihood of life. The entropy production of the planets is determined by the difference in the entropy between incident solar photons and reradiated thermal photons. Mass transport, which is necessary for life, is estimated in terms of atmospheric mixing for the various planets. A number of miscellaneous characteristics are also considered. Earth appears most favorable for life. Mars probably has primitive thermodynamic life in the form of crystal growth. Life on the other bodies in the solar system appears unlikely. [ABSTRACT FROM AUTHOR] |
From
miscellaneous criteria for estimating the likelihood of life on the planets:
Since life as viewed through the electron microscope appears to have many
crystalline features and is in a state of relatively low entropy, the
environment which can support life should admit the possibility of solids
existing. The outer layer of the sun effects a tremendous entropy production,
thermal energy being degraded from a temperature of about two million degrees
in the interior to a temperature of only six thousand degrees at the surface.
This provides a tremendous potential for ordering processes to occur; but
since no solids can be present (unless perhaps the interior of sun spots is
much cooler than is presently assumed) at the elevated temperatures of the
sun, no life can exist. |
Key words: life in the solar system, entropy of compounds,
incident solar photons, reradiated thermal photons, necessary for life, open
thermodynamic systems, entropy reducing processes, increase of entropy of the
universe, likelihood of life |
1 |
3 |
214-221 |
doi:10.1016/0303–2647(67)90059-7 NASA Grant No.: NCR 26 004 014 |
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Oscillating Vertical Magnetic Dipole Above a Conducting Half–Space |
1961 |
April |
California University, Livermore. Lawrence Radiation Lab |
The electromagnetic field produced by a vertical oscillating magnetic dipole above a plane conducting earth is obtained in integral form. An exact solution in closed form is obtained for the case in which the dipole and the point of observation are both located on the surface of the earth. [ABSTRACT FROM AUTHOR] |
A vertical oscillating magnetic dipole on the surface of an infinite plane conducting earth yields an electromagnetic field at the surface of the earth given exactly by Eqs. (48) for all ranges of the parameters. For points of observation less than a wavelength in the conducting earth away from the source, k1 p < |k2 p| << 1, Eqs. (50) show that the magnetic field varies as p-3 and the electric field varies as p-2. For distances from the source greater than a wavelength in the conducting earth but less than a wavelength in air, k1 p << 1 < |k2 p|, Eqs. (49) show that the magnetic field varies as p-m where 2 < m <3, and the electric field also varies as p-n where 2 < n <3. For distances greater than a wavelength in air, both the electric and magnetic field components, Eqs. (48), vary a s p-2. |
Key words: physics, dipoles, earth, electromagnetic fields,
magnetism, oscillations, space, surfaces |
1-17 |
doi:10.2172/4838586 Report Number(s): UCRL-6467/ DOE Contract Number: W-7405-ENG-48 |
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SHIELDING AGAINST MAGNETIC RADIATION LOSS FROM A HOT PLASMA |
1959 |
June |
California University, Livermore. Lawrence Radiation Lab |
Some concern has been expressed over the possibility that the magnetic radiation, i.e., the radiation from charges spiraling in a magnetic field, might cool a plasma rapidly enough to make a D-D fusion burn impossible in any device of reasonable size. The present paper concerns the possibility of using a metallic shield to return this magnetic-radiation energy back to the plasma. [ABSTRACT FROM AUTHOR] |
It may be concluded that the magnetic radiation loss may be easily reduced by a factor of about 5 x 10-3 by using a good conducting shield. If any significant improvement over this figure is desired, elaborate methods must be employed to cool the shield to very low temperatures of the order of 5 to 10 Degrees absolute. Since no measurements have been made of the actual flux of magnetic radiation from a plasma, and since there is some doubt that the flux will, indeed, be 1arge, there is no need to suggest anything other than a simple metallic shield at this time. Such a shield will also be effective and desirable for shorter-wave-length radiation (visible). |
Key words: Deuterium, Electric Conductivity, Electromagnetism,
High Temperature, Losses, Metals, Plasma, Radiations, Shielding,
Thermonuclear Reactions, Controlled Thermonuclear Processes |
doi:10.2172/4212214 Report Number(s): UCRL-5606/ DOE Contract Number: W-7405-ENG-48 |
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Ecophysics the Application of Physics to Ecology |
1974 |
January |
Re-published in 1997: Charles C. Thomas Springfield Illinois |
ECOPHYSICS, The Application of Physics to Ecology is the first to be published in the area of ecophysics and presents original research done over the last twelve years in ecology using theoretical physics. The word "ecophysics", an abbreviation for ecological physics, is the study of ecology where physics is used as an important tool. The mets of designating this interdisciplinary field is based upon the time–honored precedent established by such fields as biophysics, geophysics, astrophysics and space physics. The field of ecology is assumed here to cover a broad range of topics, in particular any area of research dealing with life as it naturally occurs which does not involve any detailed internal examination of individual organisms. This new interdisciplinary field opens up whole new vistas for research and is bound to attract an increasing amount of attention in the future. Written primarily for physicists and mathematicians interested in theoretical ecology, this test should also interest ecologists, biologists, environmentalists, and exobiologists who have some background in mathematics and physics. Being interdisciplinary in scope, certain portions will be of special interest to power engineers, psychologists, anthropologists, sociologists, gerontologists, philosophers of science, and others. This book contains original research on selected problems in ecophysics and no attempt has been made to survey all possible topics. Ecophysics, employing the rigorous concepts of physics, requires its own definitions, laws and jargon. In order to familiarize the reader with these novel ideas and to demonstrate their utility, sufficient material had to be presented at one time, which has let to the present publication in book form. [FROM AUTHOR] |
Chapter
XII: Behavior predicted by energy need: The present theory indicates that
there is a very great need for experiments that measure the energies involved
in behavior. Essentially nothing has been done in this important area of
experimental research as yet. No experimenter has as yet measured
motivational strengths in energy units as suggested by the present theory.
The rate that a rat presses a lever in a Skinner box (Heron and Skinner,
1967) may be proportional to the rate of energy expenditure, but no one has
as yet determined the proportionality constant. Activity measurements using
an activity cage are similarly never converted to fundamental units of a rate
of energy expenditure. Because of the fundamental role of energy in science,
it may be safely stated that the psychology of motivation will develop into a
true quantitative science only after the appropriate experiments (such as
indicated in the present Chapter) involving energy have been performed. In
the literature there are some real attempts to put motivation on a scientific
quantitative scale (e.g. Birch and Veroff, 1966), but unfortunately the
greatest volume of literature indicates little recognition of the real problems
and little desire to resolve the problems by experiment (e.g. Weiner, 1972). |
Key words: quantitative science, psychology of motivation,
proportionality constant, behavior predicted by energy, activity
measurements, activity cage |
8 |
4 |
340 |
Re-Print ISBN: 3–9800942–6–XISBN:
0398029598 |
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Causal quantum theory - Book |
1983 |
December |
Benjamin Wesley Blumberg, Germany |
Causal Quantum Theory presents original research derived from more than 35 years of study. Quantum mechanics is treated in a completely causal deterministic manner. Particle trajectories, which yield interference and diffraction patters, are prescribed necessarily and uniquely. The centuries old wave particle problem is resolved. It is shown how particles, passing through two pinholes, travel along discrete trajectories to yell the double pinhole interference pattern. Initial positions determine which photons are reflected and which refracted at an interface; no probabilistic ideas are needed. The penetration of a barrier is the result of the quantum potential. The discrete trajectories and motion of the electron in the hydrogen atom are presented The motion of a particle in a box, the simple harmonic oscillator, and other examples are given. The Michelson–Morley result is revealed as a Doppler effect as originally predicted by Voigt in 1887 using absolute space–time. Absolute space–time physics is discussed in detail. This book provides the indispensable tools for physics of tomorrow. [FROM AUTHOR] |
Causal
quantum theory – placeholder. |
Key words: wave particle problem, interference pattern, hydrogen
atom, Michelson-Morley result, absolute space-time, quantum potential |
ISBN: 3980094200 9783980094207 OCLC 10621692 Desc.: xxiii, 405 pages : illustrations ; 21 cm |
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The Bethe-Weizsäcker Mass Formula and Lennard–Jones N–N Potentials |
1968 |
June |
American Journal of Physics |
An elementary derivation of the Bethe-Weizsäcker semiempirical nuclear mass formula which is in the spirit of current views of nuclear structure, is given. Lennard-Jones potentials are assumed to act between nucleons. Thus the major interaction between nn, pp, and np pairs is taken of the form –g/r3 +h/r4, where r is the separation distance between nucleons, and g and h are constants. An additional “symmetry” interaction of the form −s/r 3 is assumed for np pairs. Summing the potential energy over all nucleon pairs and using the Fermi statistical estimate of the kinetic energy, the Bethe-Weizsäcker semiempirical mass formula is obtained directly. The constants of the mass formula are discussed in relation to the N-N interaction and are found to be quite plausible. [FROM AUTHOR] |
The Bethe-Weizsäcker Mass Formula and Lennard–Jones N–N Potentials – placeholder. |
Key words: Nucleons, Semi empirical calculations, Nuclear masses, Nuclear structure |
36 |
12 |
1093-1096 |
doi:10.1119/1.1974371 ISSN: 0002–9505 |
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Classical Quantum Theory - Paper |
1995 |
April |
APEIRON |
From the extensive observations and the ideas of Newton and from classical physical optics the velocity of a quantum particle is given by w = S/ E , where S is the Poynting vector and E the wave energy density. Integrating w = dr/dt yields the quantum particle motion along a discrete trajectory as a function of time and initial conditions. All observables are thus precisely predicted. The wave velocity equals the classical particle velocity, where the de Broglie wavelength and the Planck frequency conditions are k = p / ℏ and ω = p ⋅ v / ℏ . For bound particle motion, the space part of the wave function ψ(r,t)=ψ(r,T,t) satisfies the usual time-independent Schrödinger equation, and so the usual eigenvalues are predicted. The reasons the traditional quantum theory is unable to make precise valid predictions in general and the de Broglie-Bohm interpretation are discussed. [FROM AUTHOR] |
The classical quantum theory presented here is able to successfully account for a vast amount of empirical evidence that cannot be explained by the traditional Schrödinger quantum theory. The classical quantum theory readily reveals the precise motion of quantum particles along discrete trajectories that yield interference and transient wave phenomena. It indicates, in terms of the initial positions of photons in the incident beam, which photons are transmitted and which are reflected at a dielectric interface (Wesley 1988), no intrinsic probabilities being involved. The idea of inherent unpredictability, which the traditional quantum theory needs to excuse its inability to make precise valid predictions, is not a feature of the precise classical quantum theory. The
underlying cause of the wave behavior exhibited by quantum particles remains
obscure. The classical quantum theory presented here is able to show how
quantum particles move to exhibit interference and wave phenomena; but it
does not say why quantum particles should move in this fashion. |
Key words: motion of quantum particles, classical quantum
theory, interference and wave phenomena, classical particle velocity |
2 |
2 |
27-30 |
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The Marinov Motor, Notional Induction without a Magnetic B Field |
1998 |
July-October |
APEIRON |
The force F of induction on a charge q due to a slowly time changing magnetic vector potential A is F = − qdA/dtc = −q∂A/∂tc = − q(V⋅∇)A/c, where V = v−v′ is the relative velocity between the charge q with a velocity v and the source of the A field with the velocity v′. For the Marinov motor, described below, v′ = 0 , ∂A/∂t = 0, ∇⋅A = 0 and B = ∇×A = 0, so the force driving the motor is given by − q(v ⋅ ∇)A/c , and the Lorentz-Maxwell theory, requiring a B field to produce a ponderomotive force, fails. [FROM AUTHOR] |
Ampère’s original force law is between two current elements When the current is switched off, no force exists. This force law, thus, clearly involves the force between two electron current elements. Yet the force that Ampère actually observed was the force on the positive ions or on the metal itself. Only the mechanism of an internally produced effective charge separation and an effective internal electric field can account for the phenomena observed. In the
Marinov motor the ponderomotive force driving the rotor is parallel to the
current flow. Since this ponderomotive force must be matched by an equivalent
induced electromotive force in the same direction, a slightly greater current
will flow on one side of the rotor as compared with the other. |
Key words: Marinov motor, failure of Lorentz-Maxwell theory, no
B field, Ampère's original force law, pondermotive force |
5 |
3-4 |
219-225 |
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A theorem and proof for the total time derivative of a vector
field as seen by a moving point |
1999 |
July-October |
APEIRON The Ephemeris |
A theorem
and proof for the total time derivative of a vector field as seen by a moving
point – placeholder. |
6 |
3-4 |
237-238 |
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Induction Produces Aharonov-Bohm Effect |
1998 |
January-April |
APEIRON The Ephemeris |
A charge e, moving with the velocity v through
a time-constant space-varying magnetic potential field A, experiences a force of motional induction given by F = − e(v⋅∇)A/c. Although
the magnetic field is zero, B = 0; this
force acts on the electrons passing on the two sides of a long solenoid to
produce the phase shift difference observed in the Aharonov-Bohm effect.
[FROM AUTHOR] |
Induction
Produces Aharonov-Bohm Effect – placeholder. |
Key words: Space-varying magnetic potential, Aharonov-Bohm
effect |
5 |
1-2 |
73-78 |
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Order versus Chaos in a Steady-State Cosmology |
1996 |
July-Oct |
APEIRON |
It
is shown that evidence claimed to reveal an irreversible universe can be
explained in a steady-state universe. The age of rocks is local. The
abundances of the elements are established in stars and novas. The
cosmological red shift is a gravitational red shift; the value of the Hubble
constant being thus derived. Olber’s paradox is resolved by the cosmological
red shift. The 2.7°K background is shown to be the cosmologically red shifted
light from the farthest galaxies. The second law of thermodynamics is obeyed
for local entropy reducing or ordering processes (such as life) by excess
high entropy, or chaos, being radiated off into deep space as thermal
radiation. The universe is then rejuvenated by the high entropy radiation, or
chaos, in deep space being converted gravitationally back into low entropy
gravitational potential energy, or order. [FROM AUTHOR] |
Fluctuations
away from equilibrium: If the process of conversion of thermal energy to
gravitational energy were to be in equilibrium, then the reverse process
would lead to thermal equilibrium and the ultimate “heat death.” To escape
the “heat death,” not only must the universe be rejuvenated by conversion of
energy of low utility to energy of high utility, but some sort of
nonequilibrium must occur. In ordinary statistical mechanics such
nonequilibrium states are allowed as fluctuations. Statistically temporary
condensations of molecules can occur. The life-time of such condensations, or
fluctuations, depends on the thermal velocities of the molecules and their
mean free paths. A local gravitational condensation of matter, or
fluctuation, can occur if the surrounding environment is transparent to
thermal photons. The coupling between radiation and gravitation in this
process depends upon the mean free paths of the photons. In particular, a
photon loses half its energy gravitationally after traveling a distance D
given by the cosmological red shift; thus, D = c∆ε/Hε = c /2H . With this distance as the mean free path of a photon,
the life-time τ of a local fluctuation can then be of the order of magnitude
τ = D /c = 1/ 2H = 6.1 x 109 years, assuming a Hubble constant H = 80 km/s
Mpc. The age of our local region of the universe, as indicated by the oldest
rocks, is about 4.5 x 109 years. Thus, the local nonequilibrium that we
observe may, in fact, be interpreted as a fluctuation in the cosmological
sense. |
Key words: temporary condensations, cosmological red shift,
gravitational red shift, Hubble constant, local entropy reducing process,
high entropy radiation |
3 |
3-4 |
92-98 |
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Solar System Velocity from Muon Flux Anisotropy |
1996 |
April |
APEIRON |
The
cosmic-ray muon half-life, being proportional to γ = 1/√(1
− v2/c2), depends upon its absolute velocity v2 = v′2 +2v′⋅vo + vo2
, where v′ is the muon velocity
relative to the Earth and vo is the absolute velocity of the solar system.
The sea-level muon flux then depends upon vo through v′⋅vo . An
approximate theory is presented for the absolute velocity of the solar system
vo as a function of the expected anisotropy of the sea-level flux of muons as
a function of the celestial direction of v′ . A cosmic
ray telescope was used to measure the muon flux as a function of the
celestial direction. The observations yield a solar system velocity of vo
= 359 ± 180 km/s in the direction of right ascension αo = 8.7 ±
3.5h and declination δo = –1.1 ± 10.0° in reasonable
agreement with results reported involving other methods. [FROM AUTHOR] |
The
absolute velocity of the solar system measured using the anisotropy of the
cosmic-ray muon flux is presented in Table 1. The error involved is rather
large. Yet the anisotropy, while broad, is quite real, and the mean value
observed agrees with measurements using other methods. The present results thus
serve to confirm the value of the absolute velocity of the solar system
obtained by other (more accurate) methods. The present result demonstrates
empirically for the first time the fact that the appropriate particle
velocity to be used in the γ factor, γ = 1/√(1 − v2/c2),
is the absolute velocity of the particle. Results might be improved by
eliminating more of the background coincidences by using an improved cosmic
ray telescope. An appropriate array of Geiger-Müller counters registering
muon produced cosmic ray “showers” might serve the purpose. A large
uncertainty exists in the estimate of the value of K, defined by Equations
(17) and (20), which produces a corresponding uncertainty in the reported
magnitude of the absolute velocity of the solar system vo
, as indicated by the first of Equations (27). The reported direction,
αo and δo , is independent of
this uncertainty. A more detailed analysis of the various processes involving
muons in the atmosphere should be able to reduce this uncertainty. |
Key words: Cosmic ray muon flux, absolute solar system velocity |
3 |
2 |
33-37 |
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The Two Velocities of Classical Waves |
2004 |
June |
Physics Essays |
Classical
waves in a medium, valid for light and for sound, involve two velocities, the
phase velocity c' and the energy velocity c, which in general are different
both in direction as well as in magnitude. Doppler effects for a moving
source and observer and for a wind are derived. The out-and-back phase
velocity of a wave in a wind is proved to be isotropic according to classical
wave theory, which explains the Michelson-Morley null result as simply a
classical Doppler effect. Feist has recently experimentally demonstrated the
isotropy of the out-and-back phase velocity of sound in a wind, thereby
confirming classical wave theory and duplicating for sound the
Michelson-Morley null result for light. [FROM AUTHOR] |
Four of
the authors eight conclusions are mentioned here: 1. Since
the out-and-back phase velocity of light is isotropic in an ether wind;
standing light, or electrodynamic, waves, involving back and forth travelling
waves will reveal no orientation effects with respect to the ether wind or
due to the direction of the setup's motion with respect to absolute space.
The resonating frequency in a cavity is, thus, unaffected by its orientation
in space, as is empirically observed. Similarly, no alteration in the
standing electrodynamic wave pattern on a wire has ever been detected with a
change in the direction of the wire. 2. Since
the out-and-back phase velocity of light is c--' = c(1-v2/c2)
in an ether wind of velocity v: the phase velocity in a resonating cavity is
c--' and not
the energy velocity c. Since the velocity of the ether wind, the absolute
velocity of the solar system, as determined by various methods is about 300
km/s and v2/c2 ~ 10-6; the value for the
“velocity of light” listed to 9 places in the tables of physical constant,
that is erroneously chosen as the cavity value c--', is in error in the
6th place. 3. Since
the Fizeau-Michelson method, that is supposed to measure energy velocity of
light c, depends upon the out-and-back time for a light signal to travel a
known distance; it also measures instead of the out-and-back phase velocity c--' in the ether
wind. It is, thus, also subject to precisely the same error as the cavity
method. 4. To
correct the phase velocity c--' to obtain the true
energy velocity c to better than 6 places a reliable value for the absolute
velocity of the solar system, or the ether wind, is needed, as best done by
Marinov's coupled mirrors method with the improvements suggested by Wesley. |
Key words: classical waves, energy velocity, Feist's results,
light, Michelson-Morley, phase velocity, sound, Speed of light, speed of sound,
Doppler effect, waves (physics), sound waves |
17 |
2 |
159-165 |
|
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Classical Interpretation of Quantum Mechanics |
1961 |
June |
Physics Review |
Following
de Broglie, Bohm, and others, it is assumed that quantum mechanics may be
interpreted causally and that the ψ
function plays the role of a generating function for particle trajectories.
By arguing that the ψ function should
not be interpreted as a probability amplitude, a new method for generating
particle trajectories is postulated. The four-momentum of a scalar particle
is assumed to be given as the gradient of an unspecified function F(ψ), where ψ is a pure real solution of the Klein-Gordon equation. Since the
location of a particle is determined solely by its trajectory, the
probability distribution differs from ψψ∗ ; and therefore, ordinary
experimental results differing from the traditional theory may, in principle,
be predicted. Particle motion and trajectories are discussed for three
examples: a free particle, a particle in a box, and the double slit. [FROM
AUTHOR] |
Although
the present theory appears to resolve a number of difficulties present in the
traditional quantum theory and suggests that submicroscopic phenomena may be
amenable to investigation with the fruitful tools of classical physics, it
still fails to present the actual classical problem being solved. Although a
simple prescription for finding more-or-less reasonable trajectories, which
seem to be superior to those prescribed by previous causal theories, has been
given, the classical situation that gives rise to this prescription remains
obscure. Since the wavelike appearance of particles is assumed here to be
only approximate, eventually it should be possible to suggest an ordinary
experiment that will distinguish between the theory presented here and other
theories. No experiment is suggested at this time because of the difficulty,
largely mathematical, in ascertaining f(r0), Eq. (24). The theory
presented here yields exactly the same energy eigenvalues, energy
differences, and wave functions as the traditional quantum theory; therefore,
it may be assumed that perturbation theory, transition probabilities, and
quantum statistics remain unchanged. The so-called penetration of a potential
barrier by a particle, although requiring a different physical
interpretation, can be expected to be formally similar to the traditional
quantum theory. The present theory, in common with all causal theories,
requires an explanation for the apparently random emission of radioactive
particles – contrary to the traditional theory which assumes the radioactive
decay process to be intrinsically chaotic. Further work is needed to extend
the present theory beyond the case of a single scalar particle. |
Key words: Random emission of radioactive particles,
perturbation theory, transition probabilities, quantum statistics |
122 |
6 |
1932-1941 |
APS Physics |
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Michelson-Morley null result for sound and light is a classical
Doppler effect |
2005 |
January |
Hadronic Journal |
Feist
has shown the out & back phase velocity of
sound to be isotropic with respect to wind (- v) with magnitude c'(out & back) = c(l
– v2/c2), which results from the oneway phase velocity
for the classical Doppler effect, c' = c(1 - v • c/c2). Since light is also a classical wave; and
since the Michelson-Morley null result also shows the out &
back phase velocity to be isotropic with respect to the ether wind;
the M-M null result is also simply a classical Doppler effect. [FROM AUTHOR] |
The
article proves that the Michelson-Morley null result is a classical Doppler
effect. And the space-time explanation of "special relativity" is
wrong, along with its many other failure. |
Key words: Doppler effect, space-time, special relativity |
28 |
5 |
513 |
|
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Religion a Product of Territoriality |
|
|
Benjamin Wesley |
Readers
of this essay on religion will get a unique view into J.P. Wesley's life and
upbringing and how that shaped his religious views. In addition, in line with
his multidisciplinary approach to physics he is able to raise interesting
theories that tie religion to common thermodynamic ordering processes and the
need to maximize biomass in a minimum sustainable area to survive. This
optimization process in turn explains why territorial frictions arise, which
increase the risk of wars and how religion plays a role in these general
processes that shape the behavior of social units. [SUMMARY FROM PUBLISHER] |
The theory
based on primary and corollary laws of ordering processes in nature: 1. pV = nRT explaining a
complex system such as a bottle of argon gas. 2. Goods will be
generated and distributed such as to maximize the total time-average biomass
(or ecomass). 3. Sexual behavior of a
society will be such as to maximize the time-average biomass (or ecomass). 4. Statistical
thermodynamic systems open to deep space with temperatures greater than
2.5degK proceed toward states of lower entropy. 5. The biosphere and
ecosystems tend toward maximum biomass. 6. The direction of the
evolution of life is such as to increase the biomass of the biosphere and
ecosystems. 7. The time-average
behavior of humans en mass is such as to maintain and increase the biomass
(or ecomass) of the ecosystem. 8. Individuals of social
units of a particular species will distribute themselves over an area
suitable for life such that each occupies a minimum territory for survival. |
Key words: Ecophysics, maximizing biomass, maximizing ecomass,
minimum territory for survival |
|
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1-26 |
Self-published |
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Erratum: Experimental Results of Aspect et al. Confirm Local
Causality |
1998 |
December |
Physics Essays |
Prof.
Caroline H. Thompson of the University of Wales has brought to my attention
an error by a factor of 2 in my expression for the classically expected relative
coincidence counts for the experiment of Aspect et al. [FROM AUTHOR] |
In order
to observe two cascade photons from the same atom, as required for (2), the
photo-detectors used would have had to be essentially 100% efficient,
detecting each and every photon incident on the detector. Since
photo-detectors in the wavelength range of interest generally require about
200 photons to produce one count, Aspect et al. could have only detected the
classical result (1) and not the claimed result (2). |
Key words: Local Causality |
11 |
4 |
610-610 |
Physics Essays Publication |
||
Frequency of wars and geographical opportunity |
1962 |
December |
The Journal of Conflict Resolution |
It
will be shown here that the relationship between the frequency of wars and
the size of wars may be derived on the basis of geographical opportunity
alone. It is, of course, reasonable to expect geographical opportunity to
affect the frequency of wars, since the frequency of wars between neigh- boring
countries is greater than the frequency of wars between countries widely
separated geographically. A man is much more likely to quarrel with his
next-door neighbor than with someone several houses removed. Interactions of
all sorts, both constructive as well as destructive, are more frequent
between people in adjacent areas than between those widely separated geo-
graphically [FROM AUTHOR]. |
It cannot
be claimed that the derivation of the distribution formula, equation (6) log10
(df/d log10n) = C - 0.5 log10n, in terms of geographical
opportunity alone is the only derivation possible. An investigation involving
some direct measure of the geographical opportunity (such as a correlation of
frequency of wars between two |
Key words: Geographical opportunity, frequency of wars,
magnitude of wars, number of boundaries |
6 |
4 |
387-389 |
Sage Publications, Inc. |
||
Inertial Mass Energy Equivalence |
2001 |
January |
Physics Essays |
Introducing
an inertial mass equivalent of the Coulomb potential energy, M = −U0/c2,
the rate at which U0 decreases as a charge q recedes from a fixed
charge q′ equals the rate of increase in kinetic energy, dU0/dt = −Vd[(m − U0/c2)V]/dt, where m is the material mass
of q. Integrating, the total energy is E = c2m(1 − (1 − V2/c2)1/2) + U0√(1 − V2/c2
U0 + (m − U0/C2)V2/2. The
portion U = (qq′/R)(1 − V2/2c2) is the Weber velocity
potential. The net mass of an electron, me − eV/c2, in a uniform
electrostatic potential field ζ has been measured as a function of ζ.
Applying the Weber theory to gravitation, −Gmm′ replacing qq′, the far masses
in the universe yield the force F = (m0/c2)a = −(U/c2)a in agreement with Mach's principle
and inertial mass‐potential
energy equivalence. Associating an inertial mass with the kinetic energy K
yields neomechanics, where K = c2m√ (1/(1 − v2/c2) − 1)
[SUMMARY FROM PUBLISHER]. |
The mass
equivalent of the total internal energy of a closed system has been used to
derive the Bethe-Weizsäcker mass formula for the masses of the elements using
a Lennard-Jones nucleon-nucleon potential.(13) In this case a mass
equivalent is idnetified with plus the potential energy, M' = + U/c2, which would seem to conflict
with the negative sign used in (1) above. The situations are, however, quite
different. The interital mass
equivalent in (1) is a small second-order
correction. For example, in (7) the total energy involves hte usual
kinetic and potential energies minus the correction as a small decrease in
the kinetic energy – (U0/c2)V2/2.
The mass equivalent of the total energy M' = E/c2 would
thus include htis small negative second-order correction as – [U0/c2)V2/2]/c2, which varies as 1/c4. |
Key words: Inertial mass-energy equivalence, Weber potential,
Mach's principle, neomechanics |
14 |
1 |
62-65 |
Physics Essays Publication |
||
Earnshaw and Thomson's Problem |
1987 |
November |
American Journal of Physics |
Readers
of the American Journal of Physics who have tended to believe the Berezin
approach to solving "Thomson's Problem" and the idea that electric
charges can adopt mutually stable configurations in their electric
interactions, must have been startled by the letter of H. Aspden in your
March issue [FROM AUTHOR]. |
Can it be that belief in Einstein is
so strong that we no longer pay attention when new and relevant experimental
facts come to light? Yet, as Aspden implies, even J. J. Thomson had the sense
to ignore Earnshaw's theorem, in the interests of advancing our knowledge, so
why it is that our minds are so closed on the "aether" question? |
Key words: Modulation of standing waves, laser beam direct
retroreflection, motion of the laboratory, preferred reference frame,
physical aether |
55 |
11 |
971 |
Letter to the Editor |
|
|
Light, a Flux of Electric Dipole Photons |
2003 |
December |
Physics Essays |
Particles
to be viewed macroscopically as an electrodynamic light wave must make up a
coherently spatially arrayed flux of electric dipole photons. The photons
must move as a function of time and initial conditions along trajectories
prescribed by the integrals of their velocity w, given by w
= S/E, where S = ∇Ψ∂Ψ/∂t,
E = (∇Ψ)2/2 + (∂Ψ/∂tc)2/2,
and Ψ is a solution to the wave equation. Since a distribution of induced
electric dipoles in a medium yields a resultant electric field, the
polarization, it may be assumed that a flux of photons as electric dipoles in
free space will yield the observed electric E field of a light wave. It is shown that such a flux of electric
dipoles generates the observed magnetic B
field for a transverse light wave. No magnetic field accompanies a
longitudinal light wave, the electric dipoles being aligned in the direction
of propagation [ABSTRACT FROM AUTHOR]. |
Since charge appears to be quantized
as the electron charge e, the electric dipole photon might be an
electron-positron pair separated by the distance L to yield an electric dipole moment b = eL. The half spins of the electron and
the positron ℏ/2 might then add to
yield the unit spin ℏ of the photon. Since
the magnetic moment of the positron relative to its spin is opposite to the
relative orientation of the magnetic moment and the spin of the electron, the
net magnetic moment of such an electron-positron pair would yield the zero
magnetic moment of the photon. If the electrostatic force of
attraction e2 /L2 were balanced against
the force of repulsion between the two antiparallel magnetic moments, 6μm2/L4,
where μm = ℏe/2cme, would yield a
separation distance L = 4.73 × 10–11 cm. This separation distance
might seem reasonable as compared with the Compton wavelength of a single
free electron of 2.43 × 10–10 cm. Unfortunately, the energy of the
electron-positron pair would have to equal the photon energy; thus ℏω=2c2me−(e2/L)+(2μ2m/L3)
>2c2me, (17) which would mean
that such an electron-positron pair could not be stable, the photon energy !ω being drastically less than 2c2me . The partial success of this speculation indicates
that perhaps an adjustable double plus-minus spinning ring model for the
electron (18) might work. No further speculation is warranted
here. |
Key words: Light, electric dipole photon flux, photon flux,
spatially periodic arrays, electron-positron pair |
16 |
4 |
499-503 |
Physics Essays Publication |
||
More debate on information and the PIE proposal |
1966 |
October |
Physics Today |
Both
Moravcsik and Pasternack seem to lose sight of the fundamental purpose of the
exchange of physics information. Ideally a physicist would like to be able to
communicate as rapidly as possible with colleagues throughout the world who
have interests similar to his own. He would like to receive all recent
literature that may be relevant to his own interests without any particular
effort on his own part. He would not wish to be burdened with extraneous or
worthless material. |
The evaluation of manuscripts is time
consuming and, if mandatory, it would seriously impede the proper flow of
information. Each recipient physicist should be the best judge of what type
of manuscripts he wishes to read; if he wishes nonrefereed manuscripts to
save time, they should be made available to him without delay. I recommend an
expanded and upgraded PIE. |
Key words: Physicist's worth by counting publications refereed
and non-refereed |
|
|
11-12 |
|
|
|
Ritz is Wrong |
2003 |
December |
Physics Essays |
Ritz
postulated that all action and light proceed with velocity c with respect to
the moving source. A review of the evidence against this Ritz theory is
presented here. The variability of distant stellar sources, such as Cepheid
variables and pulsars, could not be observed if Ritz were right [ABSTRACT
FROM AUTHOR]. |
The failure
of the Ritz theory becomes even more drastic when visual pulsars are
considered with period on the order of 2 s, which, according to the Ritz
theory, (12), should only be observable at distances less than 0.0014 pc. Of
the approximately 500 pulsars now seen, the closest is at a distance of about
100 pc, which means that, according to Ritz, no pulsar at all should be
observed with a period of 2 s or less. The pulsar in the Crab Nebula, which
has a period of 33 ms, is at a distance of 1.3 kpc. Consequently, the Ritz theory,
(12), fails by the huge factor of 5.6 × 109 to permit this
observed pulsar to be, in fact, observed. In addition, there are pulsating
sources with radiating atoms with thermal velocities orders of magnitude
greater than the modest 2 km/s considered above, such as in X-ray pulsars.
The Ritz theory fails utterly to explain the observations of such exotic
pulsating sources. |
Key words: Light, velocity c relative to source, Ritz, ballistic
theory |
16 |
3 |
385-389 |
Physics Essays Publication |
||
On Peoglos' measurement of the force on a current loop due to
the remainder of the loop |
1989 |
March |
Journal of Physics: Applied Physics |
Peoglos
reports forces on portions of a current loop due to the remainder of the loop
which are in excellent agreement with the direct integration of Ampère's
original force law. Peoglos has not, however, confirmed the nonphysical
absurd Biot-Savart law: it predicts ambiguous, and thus non-testable, results
for the force on Ampère's bridge. It predicts merely fortuitously the correct
Ampère force on a straight portion, since only lateral forces are measured.
The force is not generally given by 2Fx = I2 dL/dx and could not, in any case, distinguish between the
Ampère and Biot-Savart laws [ABSTRACT FROM AUTHOR]. |
The
fact that the Biot-Savart law when integrated directly gives the correct
force on the straight portion (the L frame) is merely fortuitous. In general,
the Biot-Savart law will not work when integrated directly over a portion of
a current loop. For example, the force on an arc of a circular current loop
will not be correctly predicted. Only when the portion under consideration is
constrained so that the Ampere repulsion between collinear current elements
cannot be registered can the Biot-Savart law work, the Biot-Savart law
lacking the necessary longitudinal repulsive force. The large Ampere repulsion between collinear current elements yields
the second term in equation (1), varying as ln(b/r),
for the force on Ampère's bridge. |
Key Words: Ampère's bridge, circular current loop, Ampère
repulsion, longitudinal repulsive force, collinear current elements |
22 |
6 |
849-850 |
IOP Publishing Ltd |
||
Observation of scalar longitudinal electrodynamic waves |
2002 |
August |
Europhysics Letters |
Theoretically
scalar potential Φ waves with a longitudinal electric field E⃗ in the
direction of propagation must exist. A centrally fed ball antenna, 6 cm
diameter, producing a pulsating 433.59 MHz spherical source charge, generated
such a wave, that was detected by an identical ball antenna. The
longitudinality of E⃗ was demonstrated by intervening a cubic array of 9
half-wavelength wires, that absorbed the wave when the wires were parallel
(but not when perpendicular) to the direction of propagation. The signal from
the ball antenna source, placed 4.0 m above ground and receiver 4.4 m above
ground, was measured as a function of distance, yielding satisfactory
agreement with theory, including 2 expected interference minima produced by an
image source induced in the Earth. Only waves can yield such an interference
and can be reflected from the Earth’s surface and vary as the inverse square
of distance [ABSTRACT FROM AUTHOR]. |
Longitudinal
electrodynamic waves can account for the huge signal observed from nuclear
bomb explosions. – One of us (Wesley) [5,6], was unable to explain the huge
electrodynamic signal produced by a nuclear-bomb explosion, when it was
assumed that only transverse electrodynamic waves are possible. It is now
clear from the present demonstration of the actual existence of longitudinal
waves, that the huge electrodynamic signal produced by a nuclear-bomb
explosion is a longitudinal signal or wave. The electrons ejected radially
outward produce a radial transient oscillating charge separation that readily
generates a huge longitudinal electrodynamic signal. It may, thus, also be
assumed that stellar novas and super novas will also be sources of extremely
energetic transient longitudinal waves, that should be readily detectable on
the Earth with the appropriate antenna to receive longitudinal waves. |
Key words: Applied classical electromagnetism, Electromagnetic
wave propagation, radiowave propagation, longitudinal waves, electrodynamic
waves, electrodynamic signal, electrons ejected radially, radial transient
oscillating charge, longitudinal electrodynamic, transient longitudinal
waves, |
59 |
4 |
514-520 |
doi:10.1209/epl/i2002–00136–9 |
||
Proposal to measure terrestrial Bradley aberration |
1991 |
November |
Foundations of Physics Letters |
Because
parallax exactly masks Bradley aberration when ordinary terrestrial sources
are used; it is proposed to measure the angle of parallax, and thus, the
angle of aberration, by observing telescopically the appearance of a three
dimensional object used as a source. For a setup rigidly fixed to the Earth's
surface at a northern latitude the variation of the appearance of the object
as a function of the time of day can then yield the magnitude and direction
of the absolute velocity of the Earth [FROM AUTHOR]. |
Proposal to
measure terrestrial Bradley aberration – placeholder. |
Key
words: Bradley aberration terrestrial, absolute velocity measurement |
5 |
1 |
77-82 |
doi:10.1007/BF00689799 ISSN: 0894–9875 |
||
Terrestrial Bradley aberration cannot be observed |
1990 |
March |
Foundations of Physics Letters |
Because
terrestrial sources radiate in all directions, collimation cannot produce a
beam fixed in direction relative to absolute space. Therefore, terrestrial
aberration, even though present, cannot be observed; and terrestrial
aberration cannot be used to measure the absolute velocity of the closed
laboratory (contradicting a prior claim in this journal). In other words, the
large parallax of terrestrial sources frustrates the observation of
aberration [FROM AUTHOR]. |
Terrestrial
Bradley aberration cannot be observed – placeholder. |
Key
words: measuring absolute velocity, Bradley aberration. |
3 |
4 |
395-397 |
doi:10.1007/BF00769712 ISSN: 0894–9875 |
||
Inertial mass of a charge in a uniform electrostatic potential
field |
2001 |
January |
Annales Fondation Louis de Broglie |
To
agree with mass energy equivalence and with induction experiments and to
generalize Weber electrodynamics to fields the Weber relative acceleration (R·A)R/R2 is replaced by the acceleration a of charge q (or by –a'
of q') alone. The force F on a charge q with acceleration a
in a uniform electrostatic potential field F is
then given by F = (qF/c2)a =
-m'a where m' is the mass
equivalent of the electrostatic energy of the charge [ABSTRACT FROM AUTHOR]. |
The original
Weber theory, for acceleration force, is an action-at-a-distance theory,
where action acts presumably directly instantaneously across any distance.
However, if action proceeds with a finite velocity c, then the Weber theory
must be altered to include fields, that transmit the action. Since inertial
force –ma on a body is experienced
instantaneously upon the application of a force on a body the inertial force
cannot, thus, be due to an instantaneous
action of the distant masses in the universe. Instead the inertial force must
arise from the interaction of the accelerating body with the local
gravitational field, that is produced by the distant masses in the universe
over eons of time. This local gravitational field is a scalar, a constant; so the relative acceleration of the original
Weber theory, that is a function of the direction R/R, must be replaced by a.
Similarly, the effect of accelerating sources, as occur in induction, cannot
be given, in general, by the original Weber theory. Instead the relative
acceleration must be replaced by the individual acceleration –a'. It is
interesting to note, as pointed out by Costa de Beauregard, that the value of
the local gravitational potential field Y produced by the
distant masses of the universe is given simply from inertial mass energy
equivalence and Mach's principle as Y = c2.
Since an inertial mass can be defined in terms of potential energy;
potentials are physically real. They are not merely mathematical generating
functions for the forces. Potential fields, such as F,
are defined in terms of the sources;
so they are causes. Forces, being
defined in terms of potentials, are merely effects produced by the potentials. |
Key
words: gravitational field, interaction of the accelerating body, local
gravitational field, Weber's relative acceleration, individual acceleration,
Mach's principle, potential fields as sources and causes, inertial mass
energy equivalence, uniform field, electrostatic potential, classical
electrodynamics |
26 |
4 |
693-697 |
ISSN: 0182-4295 CODE: AFLBDU |
||
Proposed motors driven solely by Ampère repulsion |
2003 |
July |
Europhysics Letters |
Two
motors, diagrammed in the text, are proposed that are driven solely by Ampère
repulsion between colinear current elements. Motor one involves sliding contacts with all current leads doubled with
current in opposite directions, thereby precluding the presence of any
magnetic B field and forces transverse to the current flow. Motor two involves mercury contacts that
minimize friction and optimize current flow. Forces transverse to the current
flow do no work; so only Ampère repulsion exists to drive motor two. These motors can demonstrate
unambiguously the existence and magnitude of the Ampère repulsion, which then
also demonstrates the failure of the Biot-Savart and Lorentz force laws,
“Lorentz covariance”, and special relativity [ABSTRACT FROM AUTHOR]. |
The proposed
motors should be able to yield striking evidence for the existence of the
Ampère repulsion between colinear current elements. They can provide further
evidence for the failure of the Biot-Savart law, which predicts zero power
delivered by the motors. The motors can provide evidence for the failure of
the Lorentz force, that is based upon the Biot-Savart law. In turn, the
failure of the Lorentz force indicates the failure of “Lorentz covariance”
and “special relativity” that requires “Lorentz covariance”. It should be
recognized that large currents of the order of thousands of amperes are
required to overcome any friction that may be involved. This means that the
proposed devices will have to be large with massive leads. Down-scaling does
not seem to be possible. |
Key
words: Biot-Savart law, Ampère repulsion, colinear current elements, failure
of Lorentz force, Lorentz covariance, special relativity |
63 |
2 |
214-219 |
doi:10.1209/epl/i2003-00511-0 |
||
Comment on “Observation of scalar longitudinal electrodynamic
waves” by C. Monstein and J. P. Wesley |
2004 |
April |
Europhysics Letters |
J.
R. Bray and M. C. Britton evaluated and commented on conclusions and research
presented by J.P Wesley on "Observation of scalar longitudinal
electrodynamic waves" and illustrate a few points that appear to violate
fundamental principles. The first problem has to do with the following
statements concerning the charge density and the current density inside a
conductive ball antenna: “The
result is an oscillating uniform spherical charge density” and “The
spherical symmetric current density J⃗ within the ball, that gives
rise to the pulsating surface charge source, is divergenceless, ∇ · J⃗ = 0.” |
The authors
have failed to prove that a spherical ball antenna cannot generate a
classical TEM wave (a commercial electromagnetic simulator could have been
used here). Further, the distance measurement involving the two ball antennas
appears to have been taken in an uncontrolled environment (i.e., “the
northern end of a small street on the bank of the river” [1]) instead of
being taken in a proper, shielded anechoic chamber or in a controlled outdoor
antenna range. As such, their measured power pattern could very well be due
to a TEM wave that has been scattered from the ground, buildings, or other
various objects. Given these
inconsistencies, the theoretical justification for scalar waves proposed by
the authors appears to be flawed, and the experimental validation has been
conducted in an uncontrolled environment. We look forward to receiving
clarification from the authors regarding these points. |
Key
words: Longitudinal waves, electrodynamic waves, electrodynamic signal,
electrons ejected radially, radial transient oscillating charge, longitudinal
electrodynamic, transient longitudinal waves, uniform spherical charge,
spherical symmetric current density, fundamental continuity of charge,
classical TEM wave |
66 |
1 |
153-154 |
doi:10.1209/epl/i2003–10144-9 |
||
Diffusion of seismic energy in the near range |
1965 |
October |
Journal of Geophysical Research |
It
is assumed that the flow of seismic energy from an underground nuclear
explosion or earthquake in the near range (i.e., distances of less than 1000
km) may be estimated by the diffusion equation in cylindrical geometry with a
diffusivity varying directly as frequency. A term is included to allow for
the dissipation of energy due to the anelasticity of the earth. The mean
period and amplitude of a seismogram are thereby derived as functions of the
time of arrival and range. The peak particle velocity is derived as a
function of range. A preliminary comparison with observations of the seismic
waves produced by an underground nuclear explosion indicates satisfactory
over-all agreement. |
The
theoretical assumption that the flow of seismic energy may be predicted by
the diffusion equation with a diffusivity proportional to the frequency
yields satisfactory over-all agreement with observation as indicated by Figures
1 through 4. The linear relationship (10) between the period and the time of
arrival as predicted by theory agrees with observation as shown in Figure 2.
The decrease in the slope (11) of these straight lines with range is also in
accord with observation (see Table l). The variation of the particle velocity
amplitude (20) with the time of arrival agrees adequately with observations
as shown in Figure 3. The best fit is for later times when the number of ray
paths becomes large and the diffusion picture becomes more accurate. Since Rm
= 6.4 km may be viewed as a scattering length, it would appear that the
diffusion approximation may fail for ranges of this order of magnitude.
Better agreement between theory and observation would probably be obtained if
the rms value of the magnitude of the vector
velocity were used for the amplitude instead of the peak velocity spread in
each time interval for just the radial component. The variation of the peak
particle velocity with range as predicted by theory (27) appears to fit the
data (see Figure 4) fairly well considering the scatter of the observed data
points. |
Key
words: nuclear explosion, diffusion equation, diffusivity versus frequency,
anelasticity of earth, peak particle velocity versus range |
70 |
20 |
5099-5106 |
doi:10.1029/JZ070i020p05099 |
||
Weber electrodynamics, part I. general theory, steady current
effects |
1990 |
October |
Foundations of Physics Letters |
The
original Weber action at a distance theory, valid for slowly varying effects,
is extended to time-retarded fields, valid for rapidly varying effects
including radiation. A new law for the force on a charge moving in this field
is derived (replacing the Lorentz force which violates Newton's third law).
The limitations of the Maxwell theory are discussed. The Weber theory, in
addition to predicting all of the usual electrodynamic results, predicts the
following crucial results for slowly varying effects (where Maxwell theory
fails): 1) the force on Ampere's bridge in agreement with the measurements of
Moyssides and Pappas, 2) the tension required to rupture current carrying
wires as observed by Graneau, 3) the force to drive the Graneau-Hering
submarine, 4) the force to drive the mercury in Hering's pump, and 5) the
force to drive the oscillations in a current carrying mercury wedge as
observed by Phipps. |
The observed
results of Graneau l24] and Hering {25] for the force on the Graneau-Uering
submarine and the force to drive the Hering pump have only been qualitative.
An appropraite quantitative prediction of this force (suggested by Wesley
[38]) using Ampere's law, as given by Eq.(27) or by Eqs. (37) and (38),
should be possible by measuring the pressure difference between the ends of a
wedged shape container of current carrying mercury as indicated in Fig. 5.
The difference in tension per unit area, the pressure, can be determined by
the difference in the height 6h to which the mercury rises in the two columns
indicated in Fig. s. Since the static pressure in the mercury must be the
same throughout; the mercury will rise on the end of width w 2, where the internal
!lmpere pressure is less to match the higher Ampere pressure at the other end
of width w1; thus, Fig. S. Phipps' experiment to measure Ampere tension by
measuring the pressure difference between the ends of a wedged shaped
container of current carrying mercury. pH9g6h"' (P/c2wp(c• + Z.n(L/w1))
-(P (c• + Z.n(L/w2 J), (40) PHg is the density of mercury, g is the
acceleration of gravity, and C" is a constant that can be obtained fran
Eq. ( 27). Phipps (26] has performed this experiment using a slowly alternating
current to set the mercury columns into oscillation. He observes mechanical
oscillations of twice the electrical excitation, as would be expected fran
the .Ampere driving tension varying as the current squared I z. A rocking
mode, one column up when the other is down, is observed, as would also be
expected from the Ampere on-off tension. A satisfactory approximate
quantitative confirma-tion of Eq. (40) is obtained under the assumptions
that: 1) About one-third of the mercury mass present participates in
mechanical oscillations. 2) For the micron-sized oscilla-tions observed the
restoring force of gravity is augmented (two or three-fold) by surface
stretching forces associated with the surface tension of mercury. And 3) the
"Q" of the rechanical resonance is lowered by sane unidentified
form of energy dissipation much greater than that attributable to rercury
viscous friction against the vessel walls. |
Key
words: electrodynamics, Weber theory extended, Maxwell limitations, current
steady effects |
3 |
5 |
443-469 |
doi:10.1007/BF00665929 ISSN: 0894-9875; 1572-9524 |
||
Weber electrodynamics: part III. mechanics, gravitation |
1990 |
December |
Foundations of Physics Letters |
Weber
electrodynamics predicts the Kaufmann-Bucherer experiments and the fine
structure energy level splitting of the H-atom (neglecting spin) without mass
change with velocity (i.e., mass≠ m0/√(1 − v2/c2)).
The Weber potential for the gravitational case yields Newtonian mechanics,
confirming Mach's principle. It provides a cosmological condition yielding an
estimated radius of the universe of 8 × 109 light years. Despite
these successes, the independent evidence for Kaufmann mechanics, where mass
changes with velocity (i.e., mass = m 0 /√(1 − v2/c2))
is convincing. Perhaps a slight alteration may make the Weber theory
compatible with Kaufmann mechanics. |
For
electrodynamics 1t is a matter ot ind1fference what f1mct1on f in tq. (71) is
used, as long as 1t satisf1es Eq ·l1'l.); but for the gravitational case the
acceleration term is no longer small. From the cosmological condition l32)
the acceleration term must be regarded as of order wuty. in the gravitational
case the coefficient a2 in Eq. (72) must then also be considered. In
particular, the function f should be chosen to satisfy Eq. (72) and to also
yield Kaufmann mechanics. An appropriate modified Weber potential satisfying
these requirements is given by U =-(Gmm'/3R){4-(1-(dR/dt)2/c2J-3!2} . (73)
This potential, satisfying Eq. (72), yields all of the usual predictions of
electrodynamics. For the problem of a mass m moving in a universe of static
masses, as considered in Section 4 above, the acceleration force term F3
becomes Fa • -(Gmpofc2)Jd3RR(R•a),AP(1-=-(<P0/c2)md(yv)/dt • -md(yv)/dt,
to order av4Jc4 for <P0/c2 • 1. A1 though this potential, Eq. (73), makes
the Weber theory canpatible with Kaufmann mechanics for the gravi ta-tional
case; and although it yields all of the ordinary results for the electrodynamic
case; it does not make it COJil'atible with mass change with velocity for the
Kau:fmann-Bucherer experiments. |
Key
words: electrodynamics, Weber theory, Kaufmann experiment, Mach's principle
confirmed, radius of universe, Kaufmann mechanics |
3 |
6 |
581-605 |
doi:10.1007/BF00666027 ISSN: 0894-9875; 1572-9524 |
||
Weber electrodynamics, part II unipolar induction, Z antenna |
1990 |
October |
Foundations of Physics Letters |
Weber
electrodynamics predicts the localized unipolar induction observed by Müller
and Kennard; whereas the Maxwell theory, based upon closed current loops and
the flux rule, fails. The Weber theory for high frequency fields predicts a
zero self torque on the Pappas-Vaughan Z-antenna, as observed. In contrast,
the Maxwell theory predicts a sizeable self torque which is not observed. |
Discussion
concerning the self torque on the Pappas-Vaughan Z-antenna Pappas and Vaughan
found from the power fed to their antenna of at least 35 watts and its
impedance of 70 ohms that the peak current I was at least 1 ampere.
Substituting this value of I and the wavelength ,\ = 2 m into Eq.(33), using
Eq.(34), yields the estimated self torque on the Pappas-Vaughan Z-antenna as
predicted by the Maxwell-Lorentz theory of at least T "' -0. 805 PA/c2 ,
.. -w-2 Nt m. (35) This is 5 orders of magnitude greater than the minimum
torque of 10 -7 Nt m that could have been observed. They observed no torque.
As an experimental t.het.k thE'y had no diffiwlty in obtaining a strong
deflection when a half-wavelength straight wire was brought into the
neighborhood of one end of their antenna. Tile dipole induced in the wire by
their antenna would be expected to produce an effect of the same order of
magnitude, but smaller, than that predicted by the Maxwell-Lorentz theory. It
is t.oncluded that nonzero self torque predicted by the Maxwell-Lorentz
theory does not agree at all with the experimental result of Pappas and
Vaughan; while the zero torque predk ted by the Weber field theory and
Newton's third law does agree with their result to within the limits of the
sensitivity of their setup. |
Key
words: electrodynamics; Weber versus Maxwell, unipolar induction, Z-antenna
self torque |
3 |
5 |
471-490 |
doi: 10.1007/BF00665930 ISSN: 0894-9875 1572-9524 |
||
THEORY OF ELECTROMAGNETIC FIELD FROM A HIGH-ALTITUDE SHOT |
1961 |
April |
California University, Livermore. Lawrence Radiation Lab |
The
present investigation concerns the theoretical derivation of the altitude
effect electromagnetic field produced by a nuclear bomb explosion. The
electric polarization wave, which is produced by gamma rays from the bomb
knocking Compton electrons radially outward from the bomb, progresses through
the air where the density varies with altitude. The variation of the air
density with altitude causes the electric polarization wave to be
nonspherically symmetrical and to be the source of a large electromagnetic
field - the altitude effect. There is a brief discussion of the
physical mechanisms. that establish the polarization wave. And there is an
approximate derivation of the two physical parameters of interest: the
electric polarization source strength, A, and the reciprocal effective mean
free path of gamma rays in air, b. The
theoretically derived electric polarization wave source is substituted into
Maxwell's, equations. By introducing a scalar, y ,
Maxwell's equations reduce to a single inhomogeneous scalar wave equation.
Applying Green's theorem, the scalar y and
consequently the electric and magnetic field components are expressed in the
form of triple integrals over a spheroidal volume which grows in time. These
integrals are presented in forms suitable for numerical integration; however,
no numerical results are presented. After the passage of the polarization
wave the static charge distribution produces a static electric field. This
static electric field is expressed in the form of double integrals which
involve the complete elliptic integrals [ABSTRACT FROM AUTHOR]. |
THEORY OF
ELECTROMAGNETIC FIELD FROM A HIGH-ALTITUDE SHOT – placeholder. |
Key
words: nuclear bomb explosion, electric polarization wave, polarization
source strength, free path of gamma rays, inhomogeneous scalar wave equation |
|
|
1-39 |
doi:10.2172/4212214 Report Number(s): UCRL-5157/ DOE Contract Number:
W-7405-ENG-48 |
||
BACKGROUND RADIATION AS THE CAUSE OF FATAL CONGENITAL
MALFORMATION |
1960 |
July |
International Journal of Radiation Biology and Related Studies
in Physics, Chemistry, and Medicine |
The
fraction of malformed births (deaths due to congenital malformation divided by
births) is shown to vary over the earth with background radiation. Cosmic-ray
energy flux is taken as the measure of background. The relation between the
world-wide incidence of congenital malformation and geomagnetic latitude
yields a X/sup 2/ = 21 (P < 0.0001) and is in agreement with the
approximate theoretical relation. Lines of equal incidence of congenital
malformation show characteristics which match variations in the earth's
magnetic field or background radiation. Since the variation from U.S malformed
births per 1000 in South-east Asia to 7.9 in Northern Ireland can be
attributed to background, at least 96 per cent of all deaths due to
congenital malformation can be attributed to background. The distribution of
congenital malformation within the United States provides corroborative
evidence. X rays have caused a 6 per cent increase in congenital malformation
in the United States in the last 30 years [ABSTRACT FROM AUTHOR]. |
In the light
of experimental results obtained by irradiating animals and of the work of
Gentry et al. in New York State, U.S.A., in correlating the variation of the
incidence of congenital malformation in humans with a corresponding variation
in background radioactivity (Gentry, J. T., Parkhurst, E., and Bulin, G. V.,
1959, Amer. J. Publ. Hlth, 49, 4), it must be accepted that
background radiation is responsible for at least some human congenital malformation. It would be very interesting
if another mechanism, known to occur in nature, could be discovered to
account for the remaining
congenital malformations. It would also be of some interest if this mechanism
could account for the correlation of fatal congenital malformation with
geomagnetic latitude, a correlation which, apparently, is not disputed. My theory
does not claim that the background radiation at the geomagnetic equator
should be zero. If it is
ascertained by observation that the latitude variation of the total
background radiation is not sufficient to account for the variation in the
incidence of congenital malformation, and if the medical data are correct,
then because of the demonstrated effects of radiation I would be inclined to
consider the individual latitude variations of trace radioactive elements
which might have specific biological effects causing congenital malformation. |
Key
words: lethal doses, cosmic radiation, radiation effects, cosmic-ray energy
flux, congenital malformation, birth defects |
2 |
3 |
333-334 |
doi:10.1080/09553006014550101 ISSN: 0020-7616 OSTI Identifier: 4157976 |
||
THE RESEARCH FRONTIER: Quasars as Protogalaxies |
1969 |
January |
American Association of Physics Teachers |
If
a galaxy of stars is born when two massive neutron stars collide, then a
galaxy in its earliest stages should look like a quasar. A galaxy is a
collection of billions of stars arrayed along two spiral arms to look like
the 4th-of-July pinwheel. Our star, the sun, is located far out on
one of the spiral arms of our own galaxy, the Milky Way. A galaxy is so large
that it takes thousands of years for light traveling 186000 miles per second
to cross the galaxy. The universe contains billions of such galaxies. |
If galaxies
are formed by collisions between massive neutron stars, then there must be
enough neutron stars to maintain a constant number of galaxies, the rate at
which galaxies are born equaling the rate at which they die. The number of
neutron stars necessary to produce galaxies agrees with the number necessary to account for the
observed fraction of mature galaxies which show evidence of having collides
with a neutron star. |
Key
words: colliding neutron stars, birth of galaxies, constant number of
galaxies, black hole as remnant of neutron star collision |
7 |
6 |
348-349 |
doi:10.1119/1.2351401 |
||
Causal quantum mechanics with phase and particle velocities
equal |
1965 |
June |
Il Nuovo Cimento (1955-1965) |
A
relativistic theory of causal quantum mechanics for a scalar particle is proposed
in which the phase velocity is equal to the particle velocity. A particle is
viewed as a classical point particle that moves along a wave normal attached
to a surface of constant phase. A prescription is derived for the particle
trajectories in a standing wave which gives rise to periodic motion in the
bound-particle case. The old quantum theory of Bohr and Sommerfeld is
obtained in the geometrical optics approximation. The observed particle
density is the wave intensity (in agreement with ψψ* of the traditional
theory). The problems of a free particle, a particle reflected from a mirror,
and the simple harmonic oscillator are considered. |
Causal
quantum mechanics with phase and particle velocities equal – placeholder. |
Key
words: phase velocity, scalar particle, causal quantum, quantum mechanics,
surface of constant phase, old quantum theory, bound-particle case |
37 |
3 |
989-1003 |
doi:10.1007/BF02773188 |
||
Einstein Dynamics Without Special-Relativistic Kinematics |
1979 |
July |
Foundations of Physics |
The
Michelson-Morley result is described empirically by generalized Doppler
equations. If the phase of a light wave is not invariant, in agreement with
the quantum nature of light, special-relativistic kinematics need not be
assumed. Einstein particle dynamics and Maxwell-Lorentz electrodynamics in a
moving system are derived without assuming special-relativistic kinematics.
An alternative explanation for the decay rate of moving radioactive particles
is presented. The observation of a third-order Doppler effect may yield the
velocity of the closed laboratory [ABSTRACT FROM AUTHOR]. |
The velocity
of the closed laboratory V may be detected
by going to an appropriate third-order Doppler effect. If a Mössbauer source
is placed at the center of a rotating rod and an absorber at the end, Eqs.
(21) and (22) yield to third order w'/w0= 1 + u0x2/2c2 - u0xV2cos2f sin(2Wt)/2c3 (23) where W is the angular
velocity of the rod, f is the angle between
the plane of rotation of the rod and V,
and u0x is the
tangential velocity of rotation of the absorber. The term involving V may be singled out by amplifying the
audio frequency 2W. Mechanical
vibrations of this frequency may also arise; but the desired effect varies
through a maximum twice daily, since f = f(t), and ordinary vibrations should not be subject to such a
regular daily variation. If V is
about 300 km/sec, the amplitude of the effect might be made to be of the
order of u0xV2/2c3 » 10-13,
which should be detectable. A cesium
beam clock, where the light is viewed normal to the motion of the atoms, is
in principle subject to a daily fractional time variation given by the last
term in Eq. (22), or by
Dw/w0 = VxVyusx/c3 (24) If the
velocity usx of the atoms is about 300 m/sec then the magnitude of
the effect, Eq. (24), is again about 10-13 for a laboratory
velocity of about 300 km/sec. If a cesium beam clock can be made to run with
a fractional error of this order of magnitude, the effect might be just
observable. Un- fortunately, a rigidly mounted clock would be subject to
extraneous daily effects which would probably mask the effect sought. |
Key
words: third order Doppler effect, Mössbauer source, laboratory velocity,
relativistic kinematics, Einstein dynamics, general Doppler effect, Lorentz
symmetry, quantum nature of light, moving radioactive particle |
10 |
5-6 |
503-511 |
doi:10.1007/BF00708747 |
||
Light a Photon Flux and other topics |
2006 |
January |
Benjamin Wesley Blumberg, Germany |
The
wave-particle problem is resolved by the mathematical isomorphism between hydrodynamics
and wave theory. Quantum particles, such as photons for light, yield waves
when periodically arrayed with the de Broglie wavelength and translated. Wave
equations, such as the Schrödinger equation, are satisfied. Quantum
particles, moving along discrete trajectories as functions of time and
initial conditions yield double pinhole interference and all other such
typical wave behavior. Quantization arises when particles are forced into
standing waves. The electrodynamic properties of light are due to electric
dipole photons. Photons propagating with fixed time delays account for the
behavior of light in absolute moving media. Absolute
space is seen to exist from the fixed stars and from the fact that the
velocity of light c with respect to absolute space such that the observed
velocity c* = c - v (the absolute velocity of the Earth) as shown by Roemer,
Bradley, Sagnac, Conklin, Marinov, and others. The gravitational potential
due to the fixed stars Φ0 = c2, is the same everywhere
in absolute fixed space. Mass-energy, being gravitational energy mΦ0
= mc2, means the absolute kinetic energy is zero only when
stationary in absolute space. The Michelson-Morley result is a classical
Doppler effect in absolute space-time. Gravitation
with a finite velocity of action c yields gravity waves and resolves
Seeliger's paradox. A cosmological constant β0 in a uniform
universe accounts for the cosmological red shift with a Hubble constant H = β0/c,
thereby resolving Olber's paradox. The 2.7°K cosmic background radiation is
cosmologically red shifted starlight. Cosmology
is based upon an infinite, perpetual, steady-state universe, uniform in the
large. A flux of high entropy waste radiated off into deep space forces local
entropy reducing processes, such as the condensation of low entropy stars
from high entropy gas and dust, or the generation of low entropy life from a
high entropy environment. Such ordering occurs only as a local fluctuation of
the order of 109 years in time and light years in space. An
ordered death as super-massive bodies is avoided when two collide allowing
mass to escape from their gravitational traps to again create disorder in gas
and dust. [Introduction FROM AUTHOR]. |
Light a
Photon Flux and other topics – placeholder. |
Key
words: neomechanics, absolute space, Michelson-Morley null result, particle
flux theory, crystalline arrays of photons, light propagation in media,
electric dipole photons, quantum potentials, space curvature |
|
|
ISBN 3–9800942–10–2 |
|||
RESPONSE OF DYKE TO OSCILLATING DIPOLE |
1958 |
Jan |
Geophysics |
A dyke of sulfide ore may be geophysically prospected by: observing its electromagnetic response to a slowly oscillating magnetic dipole source. An excellent first approximation of the fields generated is obtained by considering the idealized case of a dyke of infinite conductivity and vanishing thickness in a vacuum. Surprisingly, this idealized problem can be solved exactly in terms of a newly discovered Green’s function for Laplace's equation (in three dimensions) which is simply expressed in closed form. The magnetic scalar potential and the magnetic field are given for final results. [ABSTRACT FROM AUTHOR] |
The
idealized problem of the electromagnetic response of a dyke of infinite
conductivity and vanishing thickness to a slowly oscillating magnetic dipole
can, surprisingly, be solved exactly in a simple closed form, equations (29)
through (32). This result represents quite adequately the response of a dyke of
large conductivity and small geometrical 'width. If the actual conductivity
and width need to be known for purposes of identification of the ore and to
estimate the size of the deposit, then it is necessary to refine the solution
by approximate methods to be presented in a subsequent paper. |
Key words: dyke, oscillating dipole, sulfide ore, sulphide ore |
13 |
1 |
128-133 |
ISSN: 0016-8033 1942-2156 |
||
selected topics in Advanced Fundamental Physics |
2006 |
January |
Benjamin Wesley Blumberg, Germany |
This book is suitable
for an advanced course in fundamental physics. The latest evidence and
theories in certain crucial areas are presented and analyzed free from the
restraints of old ineffective traditional ideas. The empirical facts agree
with the absolute space-time of Newton. Galilean kinematics is fundamental.
When all experiments are considered the oneway energy velocity of light is
found to be c fixed with respect to absolute space. As predicted by Voigt in
1887, the Michelson–Morley result is a Doppler effect in absolute space-time.
Kaufmann mechanics, where the particle momentum is p = mv/√(1-v2/c2) and v is the absolute velocity, while
probably correct, needs further confirmation. Mass energy equivalence, E = mc2, is an important
fundamental fact. Newtonian gravitation extended to include the mass
equivalent of the field energy itself as part of the source mass yields
Hubble's constant and permits super massive bodies (black holes). Quasars and
galaxies can arise as collisions between super massive bodies. the Weber
potential from electrodynamics when applied to gravitation yields Mach's
principle. Recent decisive experiments show that Weber electrodynamics,
extended to fields and radiation (10 citations), is correct and that Maxwell
theory is wrong. The original Ampere force law is correct; and the Biot–Savart
law, which violates Newton' s third law, is wrong. The spinning charged ring
model of the electron, held together by electromagnetic forces only, yields
all of the electron's properties including the anomalous magnetic moment.
Quantum theory is based upon classical wave theory where the phase is p • (r –vt)/h Poynting's vector prescribes
discrete particle trajectories that yield interference patterns, including
the double pinhole pattern. Initial conditions prescribe exact subsequent
motion as in classical physics. Four bound particles the Schrödinger equation
yields the usual eigenvalues. Irreversible thermodynamic ordering processes
in an open system are driven by entropy production. A statistical
thermodynamic system with a temperature greater than 2.7°K open to deep space
proceeds towards states of lower entropy. This powerful law of nature
indicates the direction of cosmological processes and the evolution of life.
The 2.7°K cosmic background is the red shifted light from the most distant
galaxies [Synopsys FROM AUTHOR]. |
selected
topics in Advanced Fundamental Physics – placeholder. |
Key
words: fundamental physics, Newtonian gravitation, Weber electrodynamics, Ampere
force law, red shifted light |
|
|
|
ISBN 9783980094245 |
|
|
selected topics Scientific Physics |
2006 |
January |
Benjamin Wesley Blumberg, Germany |
Scientific Physics is
physics based upon ordinary empirical scientific principles. Traditional
orthodox physics has become mired down in mystical ideas, antiscientific
principles, and denials of obvious experimental facts. The evidence reviewed
in this book proves space-time is absolute – no "special
relativity" nonsense. A cosmology is presented for an eternal, infinite,
uniform in-the-large, steady–state, non-expanding universe that fits all of
the facts – no impossible "big bang", no "curved space",
no expanding universe", no "bounded universe", etc. The far
reaching consequences of mass-energy equivalence (known in the 1800s) are
explored, yielding neomechanics in absolute space-time, a new gravitational
theory, etc. An electrodynamic field theory is presented that agrees with
Ampere' s original force law, with Weber electrodynamics for slowly varying
effects, and predicts longitudinal E
waves (recently observed), yields the force that drives the Marinov motor and
that explains the Aharonov–Bohm effect – no error ridden Maxwell theory, no
Faraday law of electromagnetic induction, no absurd Biot–Savart law, etc. The
conditions for creating thermodynamic order are presented, which indicate why
low entropy life exists, why stars are born from high entropy gas and dust,
why territorial behavior of all organisms and man, etc. It is shown how
quantum particles move along discrete trajectories as explicitly functions of
time to yield all observed wave behavior. The empirically correct Wesley
wave, ψ = sin[p • (r − vt) / Κ ], for free particles is generalized to yield wave equations
for bound particles – no "wave-particle duality", no single
particle interference with itself, no single particle going through both
slits to product interference, no "uncertainty principle", no
intrinsic "probability amplitudes", no superposition of physical
states, no ' complementarity' , no astrological ' nonlocality' , no thoughts
affecting experimental results, no ' indistinguishable' particles, no ' expectation
values' as observables, no ' operator approach", no etc. [Synopsis
FROM AUTHOR]. |
selected
topics Scientific Physics – placeholder. |
Key
words: big bang, big-bang, antiscientific principles, expanding universe,
non-expanding universe, absolute space-time, longitudinal E waves, Marinov
motor, wave particle duality |
|
|
|
ISBN 3–9800942–9–4 |
|
|
Proposal to measure velocity of a closed laboratory. |
1981 |
Jan |
Foundations of Physics |
Uncoupling the mirrors in Marinov's(1) coupled-mirrors experiment allows them to be separated as far apart as desired, and orders of magnitude improvement in accuracy can be obtained for the determination of the absolute velocity of the closed laboratory [ABSTRACT FROM AUTHOR]. |
Proposal to
measure velocity of a closed laboratory – placeholder. |
Key words: absolute velocity of laboratory, Marinov's
coupled-mirrors |
11 |
11-12 |
945-946 |
ISSN: 0015-9018 1572-9516 |
||
Comments on Prokhovnik's Critique of Marinov's Experiment |
1980 |
Jan |
Foundations of Physics |
The essential second half of
Marinov's experiment, neglected by Prokhovnik, is discussed. Prokhovnik
misrepresents the facts in his critique of the Marinov coupled-mirrors
experiment. Marinov's experiment was performed
and not merely "proposed." Marinov reports, in fact, the value of
300 ± 20 km/sec, declination a = - 23 ±
4°, and right ascension d = 14.3 ± 0.3h for
the absolute velocity of the sun, or solar system [Introduction FROM AUTHOR]. |
Comments on
Prokhovnik's Critique of Marinov's Experiment – placeholder. |
Key words: coupled mirror experiment, velocity of the sun |
10 |
9-10 |
803-805 |
ISSN: 0015-9018 1572-9516 |
||
Electromagnetic Radiation from Coaxial Structure |
1951 |
Oct |
University of California, Los Angeles |
In
the process of working toward an approximate solution of the problem of an
antenna consisting of a coaxial line with the outside cylinder terminated and
the inside cylinder extending a finite distance further, it was found that
the exact solution of two other antenna problems could be obtained which
would be useful for the approximate solution of the original problem. The two
problems which allow an exact solution are an antenna consisting of a coaxial
line with the outside cylinder terminated and the inside cylinder extending
to infinity and an antenna consisting of a single half infinite cylinder.
Inasmuch, as the three problems which resulted appear to be of about equal
value, they are each presented on an equivalent and more or less independent
basis [INTRODUCTION FROM AUTHOR]. |
Electromagnetic
Radiation from Coaxial Structure – placeholder. |
Key words: approximate solution to antenna problem, coaxial line
with outside cylinder, thesis |
|
|
100-122 |
|
||
Ampere’s original force law compared with the Moyssides-Pappas
results |
1987 |
Jan |
Progress in Space Time Physics 1987 |
The
force on Ampere’s bridge with straight ends (a current carrying π-shaped wire
frame) due to the remainder of the circuit is derived correctly from Ampere's
original differential force law for the first time without any amending
factors. The theory is in reasonable agreement with the variation of the
force as a function of the diameter of the wire as measured by Moyssides and
Pappas1 (J. Appl. Phys. 59
(1986)). The force on Ampere's bridge with bent ends is also derived. These
results differ from measurements by 20~30%. However, if a small systematic
experimental error is postulated, there is agreement with the theory
[ABSTRACT FROM AUTHOR]. |
It is concluded that the experimental
determinations of the force on Ampere's bridge by Moyssides and Pappas1
confirm Ampère's original force law quantitatively in its differential form.
The discrepancies between observations and theory may be regarded as small
considering the experimental and theoretical difficulties. The regularity of
these discrepancies indicate that they are probably systematic errors in the
determination of the force F and
or else the current I. |
Key words: Ampere force law, force on Ampére Bridge,
Differential Force Law |
|
|
170-180 |
ISBN: 3-9800942-2-7 9783980094221 |
||
Why the EPR paradox has been resolved in favor of Einstein |
1988 |
Jan |
Microphysical reality and quantum formalism, D. Reidel Pub. Co. |
On
the practical level the EPR paradox is resolved in favor of Einstein. Quantum
systems are usually treated as independent. The usual theory, being valid
only for coupled systems, does not say when systems should be treated as
independent. On the practical level it is, thus, incomplete or insufficient.
If the widely separated correlations reported by Aspect do occur, they may be
attributed to extraneous correlations such as in phase or in clumping, which
Aspect failed to measure. The Bell theorem sheds no light on the EPR problem;
as it is based upon traditional "expectation values" as
observables. The traditional theory cannot predict at all the observed
interference patterns produced by quantum particles such as phonons and
photons. Classical wave theory, predicting interference patterns of quantum
particles precisely, supports microphysical reality. Panarella reports that,
when light intensity is sufficiently reduced, individual separated photons do
not show quantum mechanical or wave behavior. They behave as point billiard
balls, thus, resolving the EPR paradox in favor of Einstein. Corroborative
evidence is provided by Lewis's near-field scanning optical microscope, which
also gets rid of wave effects by also limiting the intensity and by using a
hole much smaller than a wavelength [ABSTRACT FROM AUTHOR]. |
Lewis's
results accent the fact that microscopic details can actually be observed
which far exceed the limit prescribed by classical wave optics. This fact was
already known to electric fish, who find their very small prey using
essentially infinitely long wavelengths. The fuzzy traditional quantum theory
with its artificial macroscopic 'uncertainties," which never fitted the
experimental facts anyway, trust now be abandoned in the face of Lewis's
precise results. Microphysical reality is now experimentally accessible. |
Key words: EPR paradox, Bell theorem, microphysical reality,
artificial macroscopic uncertainties, photons as billiard balls |
1 |
435-441 |
ISBN: 9789027726834 |
|||
A Resolution of the Classical Wave-Particle Problem |
1982 |
Sep |
Foundations of Physics |
The classical wave-particle
problem is resolved in accord with Newton’s concept of the particle nature of
light by associating particle density and flux with the classical wave energy
density and flux. Point particles flowing along discrete trajectories yield
interference and diffraction patterns, as illustrated by Young’s double
pinhole interference. Bound particle motion is prescribed by standing waves.
Particle motion as a function of time is presented for the case of a
“particle in a box.” Initial conditions uniquely determine the subsequent
motion. Some discussion regarding quantum theory is presented
[ABSTRACT FROM AUTHOR]. |
The macroscopic
“wave” observations, or classical wave theory, consequently presents valuable
information as to some of the necessary requirements of any adequate quantum
theory, no matter whether it is applied submicroscopically or
macroscopically. For consistency with classical wave theory and the
resolution of the classical wave-particle problem presented here, it may be
concluded that an adequate quantum theory should have the following
properties: 1. The 5” function
should be real. 2. The phase velocity
should equal the classical particle velocity. 3. The particle density
should be proportional to the energy density, the first of Eqs. (3). (The
traditional claim that 51’5” represents the particle density is seen to be in
error, even for the time-average case.) 4. The particle flux
density should be proportional to the energy flux, the second of Eqs. (3).
(Again the traditional theory is seen to be in error.) 5. Time variations must
be chosen to be compatible with classical transient “wave” phenomena. (The
traditional theory which always presupposes a simple time-harmonic time
variation is inadequate to handle transient phenomena.) |
Key words: wave-particle problem, treatise of reflections, wave
behavior, particle nature of light, double pinhole interference |
14 |
2 |
155-170 |
ISSN: 00l5-9018/84/0200-0155 |
||
Michelson‐Morley Result, a Voigt‐Doppler Effect in Absolute Space-Time |
1986 |
Jan |
Foundations of Physics |
Voigt’s 1887 explanation of the Michelson‐Morley result as a Doppler effect using
absolute space-time is examined. It is shown that Doppler effects involve two
wave velocities: (1) the phase velocity, which is used to account for the
Michelson‐Morley null result, and
(2) the velocity of energy propagation, which, being fixed relative to
absolute space, may be used to explain the results of Roemer, Bradley, Sagnac,
Marinov. and the 2.7°K anisotropy [ABSTRACT FROM AUTHOR]. |
The Sagnac
positive result using moving equipment may be most easily explained in terms
of the velocity of energy propagation of light being c fixed in absolute
space (as assumed by Sagnac). The ingenious Marinov coupled-mirrors
experiment involves the one-way transit time of light in the laboratory.
Making the assumption that the velocity of energy propagation of light is
fixed in absolute space, Marinov measured the absolute velocity of the solar
system in the closed laboratory. His result agrees with that obtained from
the 2.7°K cosmic background anisotropy, but his accuracy is greater. He has
recently obtained a similar result with two toothed wheels mounted on the
ends of a rotating shaft, which involves no mirrors at all. |
Key words: coupled mirror experiment, absolute velocity of the
solar system, velocity of energy propagation |
16 |
8 |
817-824 |
ISSN: 0015-9018/86/0800-0817 |
||
A Scalar
Gravitation Theory in Absolute Space-Time |
1988 |
Jan |
Foundations of Physics |
Poisson’s equation for the
Newtonian gravitational potential is extended to include the mass equivalent
of the field energy itself as part of the source mass. Time retardation is
introduced by converting Poisson’s equation to a wave equation with a time-dependent
source. Neglecting time retardation, about 40 percent of the unaccounted
portion of the precession of the perihelion of Mercury is predicted. The
gravitational red shift, the slowing of the speed of light, and the bending
of a light my in a gravitational field follow from Newtonian gravitation and
the behavior of photons. Gravitational effects are generally smaller than for
Newtonian gravitation. There is no limit, such as the Chandrasekhar limit,
for the size of gravitating bodies; so super-massive bodies, being
admissible, may account for the missing mass in the universe and the origin
of quasars and galaxies. The cosmological red shift is obtained as a
gravitational effect, the Hubble constant predicted being in reasonable
agreement with observational estimates. According to this theory, the
cosmological red shift is not a Doppler shift, the universe is not expanding,
the big bang never happened, and the universe must be in steady-state
equilibrium [ABSTRACT FROM AUTHOR]. |
The present
result (66) and (67) for the cosmological red shift has profound implications
for cosmology. The cosmological red shift predicted here is based solely upon
a gravitational effect. This means that the usual interpretation of the
observed cosmological red shift as a Doppler shift due to an expanding
universe is untenable. Since the theory says the universe is not expanding,
the big ‐ bang theory also becomes untenable. In
addition, the theory implies a steady‐state
universe that is not changing with time. According
to the present theory, the physical mechanism giving rise to the cosmological
red shift is gravitation; so the energy lost by photons proceeding toward the
earth from large distances must be deposited as gravitational potential
energy. Considering the fact that local gravitational red shifts can be
accounted for by assuming a local expansion of matter (Sec. 8 above), a
similar mechanism may be assumed for the cosmological red shift. Matter
distributed heterogeneously as condensed galaxies and stars has lower
gravitational energy than matter evenly or homogeneously distributed as gas
and dust. Thus, light passing through space tends to drive the matter in the
universe toward more uniform or homogeneous distribution, thereby increasing
the gravitational potential energy of the universe. The
cosmological red shift phenomenon is associated with the absorption of
photons and with an “evaporation” of local condensations of matter with a
consequent increase in gravitational potential energy. Thus, in a
steady-state universe these two processes may be assumed to be balanced
against each other. |
Key
words: scalar gravitation in absolute space-time, cosmological red shift,
super massive bodies, quasars, big-bang theory |
1 |
2 |
85-91 |
ISSN: 0836-1398 |
||
Proposal to Measure Absolute Velocity Using Two Independent
Clocks |
1989 |
Jan |
Physics Essays |
A toothed wheel rotated by an
electric clock motor chops a laser beam. A see distance L from the first
again chops the beam. A second wheel a distance L from the first again chips
the beam. The resultant intensity is a linear function of the angle through
which the second wheel rotates during the time light travels the distance L, Dt = L/(c - vL), where vL
is the absolute velocity of the laboratory in the direction L. Two beams are
oriented so that the chopping increases the intensity of one and decreases
the intensity of the other. Comparing these two intensifies with the
intensities of two beams traveling in the opposite direction directly yields
the desired absolute velocity 2vL = c- - c+
electronically. The correct relative angular phase, determined by the
intensities, is obtained by rotating one of the wheels together with its
motor. The magnitude and direction of the absolute velocity of the solar
system is obtained by fixing L in the north-south direction at a northern
latitude and measuring vL over a 12‐h period [ABSTRACT
FROM AUTHOR]. |
Fixing the
length L to the Earth in the north-south direction at the colatitude q, the observed
velocity vL in terms of the
absolute velocity of the Earth vE
is given by vL = vE[cos
((j ‐ j0)sin q sin q0 + cos q cos q0], (15) where (j is the angular
position of the apparatus in the equatorial plane as a function of the
sidereal time of day, j = 2pt/T, (16) where T = 24h, j0 is the sidereal
equatorial position of the absolute velocity of the Earth, and q0 is the colatitude of
the absolute velocity of the Earth. As a function of the time of day, vL is a maximum when j = j0, or vL(max) = vE
cos(q ‐ q0). (17) When vL is a minimum j = j0 + p/2 and Eq. (15)
yields vL(min) = vE
cos q cos q0. (18) The
colatitude q0 of the absolute
velocity of the Earth from Eqs. (16) and (17) is then given by tan q0 = cot q [vL(max) - vL(min)]/vL(min), (19) and the
magnitude of the absolute velocity of the Earth is vE = {[vL(max)
‐ vL(min)]2
csc2 q + vL2(min)sec2
q}1/2. (20)
Consequently,
it is only necessary to take observations of vL over a 12-h period. Knowing the date when the observations
are made, the absolute velocity of the solar system can be readily obtained
from the absolute velocity of the Earth. |
Key words: absolute velocity with independent clocks, velocity
of earth, |
2 |
4 |
334-338 |
ISSN: 0836-1398 |
||
Weber electrodynamics extended to include radiation |
1987 |
Jan |
Speculations in Science and Technology |
Weber's law for the force
between moving charges satisfies Newton’s Third Law , the conservation of
energy, and yields Ampere‘s original empirical law for the force between
current elements. Weber's law predicts the observed force between two closed
current loops. It yields the observed temporal and motional electromagnetic
induction, and the observed force on Ampere’s bridge. The electromagnetic
field appropriate for the Weber force law is derived. This Weber field is
then extended to rapidly varying effects and radiation by introducing time
retardation. An additional electromagnetic wave, the Weber wave is obtained.
Absolute space is included by introducing time retardation using the phase
velocity observed in a moving system as predicted by the Voigt‐Doppler
effect [ABSTRACT FROM AUTHOR]. |
The
original Weber force law between moving charges, equation (5), is valid only
for relative coordinates between two moving charges. When this force is
written in terms of electrostatic and magneto static fields, equations (29),
(25), and (20), it is valid only in the laboratory frame of reference; as the
fields are defined only in terms of the frame of reference of the observing
instruments. The Weber theory extended to radiation, as given by equation
(41), involves time retardation assuming simply a velocity c between source and observer, in
particular, a velocity c relative to
the observer. This result (41) does not, therefor, include the effect of
absolute space. The
velocity of energy propagation of electromagnetic waves is observed to be
fixed relative to absolute space11-16 and not fixed relative to
the moving observer. The result (41) is, thus, only valid for an absolute
stationary observer of for v/c
negligible. Absolute
space may be introduced by noting that the restarted potentials (41) should
be, in fact, defined in terms of the apparent
retarded effects as observed therefore, be interpreted as the phase velocity,
c’, observed in the moving
laboratory. The wave equations (42) clearly indicate that c must be interpreted as a phase
velocity. The phase velocity c’
observed in the moving laboratory is, therefore, needed in equations (41) and
(42) and not the velocity of the observer, c* = c – v0 where v0 is the absolute velocity
of te observer, or laboratory. As has already been stressed,17
electromagnetic radiation observed in an absolutely moving system must have
two velocities and not just one,
the phase veloicty c’ and the
velocity of energy propagation c*.
They need not have the same magnitude nor direction. |
Key words: motional electromagnetic induction, electromagnetic
radiation, energy propagation of electromagnetic waves |
10 |
1 |
47-61 |
|
||
Spinning
charged ring model of electron yielding anomalous magnetic moment |
1990 |
Sep |
Galillean Electrodynamics |
A uniformly charged spinning
ring is proposed as a model for the electron. Four parameters, the radius of
the ring R, the half-thickness r, the total charge e, and the tangential
velocity c are chosen to yield the four electron characteristics, the mass m,
the charge e, the spin ħ/2, and the magnetic moment me. The model is completely stable under
electromagnetic forces alone. The twice classical value for the gyromagnetic
ratio is explained. The size of the electron equals the rationalized Compton
wavelength, and the frequency of rotation equals the Compton frequency. The
model yields to a higher order approximation the anomalous magnetic moment in
agreement with observation [ABSTRACT FROM AUTHOR]. |
The new
tangential velocity of the ring is exactly equal to the speed of light which
may be shown by calculating the condition for dimensional stability of the
ring using the exact equation for inductance. Equation (50) indicates that
the first approximation of tangential velocity (labeled c) is actually slightly less than the speed of light.
Substituting equations (47), (48) and (50) into (41) and (42), the new
magnetostatic and electrostatic energies become E’m = Em(1 + a/2p) E’e = Ee(1 + a/2p) (51) which are
seen to conserve energy from equations (7) and (44) and also the symmetry
condition (46). Substituting the first of equations (51) and (47) into (43),
it is seen that the angular momentum of spin p, is conserved as h/ 2.
Substituting equations (47) and (50) into (45), the more exact magnetic
moment becomes m'e = me (1+ a/2p) = (eħ/2m)(1+ a/2p) (52) The
anomalous magnetic moment is then given by m'e /me ‐ 1 = a/2p = 0.0011613 ··· (53) which agrees
with the observations to 6 or 7 places. Considering the gyromagnetic ratio m'e /p's, from equations (43) and
(52), it is seen to possess the same anomaly a/2p as the magnetic
moment. Higher
order approximations for the magnetic moment of the electron can be obtained
by considering still more accurate expressions for the capacitance and self
inductance of the spinning ring. |
Key words: spinning electron model, electron spin model, gyromagnetic
spin ratio, rationalized Compton wavelength, charged ring model |
1 |
5 |
63-67 |
ISSN: 1047-4811 |
||
Bradley aberration proposed to measure absolute velocity of
closed laboratory |
1989 |
Dec |
Foundations of Physics Letters |
Bradley
aberration, which uses the yearly angular displace- ment of starlight to
measure the velocity of the Earth about the sun, can be used in the closed
laboratory to measure the absolute velocity of the laboratory. Lasers replace
star- light. Comparing the aberration for two oppositely directed light beams
as a function of direction, the absolute velocity of the laboratory may be
deduced. A special "telescope" to be used to detect small angular
changes is described [INTRODUCTION FROM AUTHOR]. |
When the
east component in the laboratory is found to be zero, then wt = a or a + p. When wt = a the absolute
velocity of the Earth is given by v/v = e2sin
( d - d0) + e3cos (d - d0). (18) And when wt = a + p, v/v = e2sin
(d + d0) - e3 cos (d + d0). (19) Thus from
the measured north components when the east component is zero, v21
= vsin (d – d0) and v22
= vsin (d + d0). (20) the
declination of the absolute velocity of the Earth is tan d = tan d0 (v22 + v21
) / ( v22 – v21 ) ; (22) and the magnitude is given by v = [v221
+ v222 - 2v21v22 cos(2d0)]1/2 /
sin (2d0). (22) The right
ascension a for v is given by the angle a = wt or wt - p when the east
component of v is zero. The sense
of v along a, d is determined by the
sign of DI1 (See
Sec. 2). |
Key words: measuring absolute velocity, Bradley aberration |
2 |
6 |
607-616 |
ISSN: 0894-9875 1572-9524 |
||
EVIDENCE FOR WEBER-WESLEY ELECTRODYNAMICS |
1991 |
Jan |
Proceedings of the Conference on Foundations of Mathematics & Physics, Perugia, Italy, 1989 |
Weber-Wesley electrodynalnics
predicts all of the usual results of the Maxwell theory including
electromagnetic radiation. It also predicts results where the Maxwell theory
fails or is not applicable: 1) the force on Ampere's bridge in agreement with
the measurements of Moyssides and Pappas, 2) the tension required to rupture
current carrying wires as observed by Graneau, 3) the force to drive the
Graneau‐Hering submarine, 4) the force to drive the mercury in Hering’s
pump, 5) the zero selftorque observed by Pappas and Vaughan on a Z‐shaped
antenna, 6) the localized unipolar induction observed by Kennard cmd Miller ,
7) the result of Kaufmann’s measurement of e/m without mass change with
velocity, 8) a nonradiating hydrogen atom, and 9) the fine~structure
splitting of hydrogen-atom energy levels without mass change with velocity.
It is concluded that there is , thus, no evidence supporting mass change with
velocity. Experiments are suggested [ABSTRACT FROM AUTHOR]. |
1 Result:
THE WEBER VELOCITY SQUARED FORCES EXISTS The only
serious objection to Weber electrodynamics that has ever been raised is the
fact that the Weber forces between a stationary charge and a charge noving
with a velocity squared, as given by Eq. (15), had never been observed. As
discussed in Section 1.3 above this force between a conduction current and a
stationary charge is extremely small (making the Fechner hypothesis
unnecessary). Now, however, it has been shown here in Sections 8 and 9 above
from the prediction of the Kaufmann experiment and the prediction of the fine
structure of the energy levels of the hydrogen atom that the velocity squared
Weber forces do, in fact, exist. In
addition, these forces mist exist to conserve energy for an isolated system
of moving charges. These forces permit a stable nonradiating hydrogen atom,
as discussed in Section 9 above. A universe filled with moving charges in
isolated systems conserving energy is tacit proof of the existence of these
velocity squared Weber forces (which are, of course, completely lacking in
Maxwell electrodynamics). |
Key words: Maxwell theory with electromagnetic radiation, Wesley
electrodynamics |
289-234 |
|||||
Experimental
results of Aspect et al. confirm classical local causality |
1994 |
Jan |
Physics Essays. |
The claims of Aspect. Grangier,
and Roger of having obtained experimental results that violate Bell's
inequality, confimt traditional quantum theory. and disagree with classical
local causality are shown to be incorrect. They incorrectly discard events,
which they call "accidental. ” When these events are correctly retained.
their results confirm classical local causality by agreeing with classical
physical optics and thus with Wesley's causal quantum theory as well [ABSTRACT
FROM AUTHOR]. |
It is
important to know the fraction of the total coincidences that Aspect eral.
subtract as “accidental.” Unfortunately all that they say is: “Typical
coincidence rates without polarizers are 240 coincidences per second; for a
l00-s counting period we thus obtain 150 true coincidences per second
...."3 They thus subtract about 90/240 ~ 1/3 of their
coincidence counts for null delay with no polarizers (equivalent to choosing f = 0) as
“accidental.” If the classical prediction, Eq. (5), is correct (and it
undoubtedly is), then this means [setting f = 0 in Eq. (5)] that
they subtract about (1/3)(3/4) = 1/4 from their original data as
“accidental.“ In this way they convert the classical prediction (5), which
they apparently observe, to the traditional quantum theoretical prediction
(6). It may
thus be concluded that their original unmanipulated data fit the classical
physical optics result (5) or Wesley’s causal quantum theory and local
causality far better than the traditional quantum theory result (6). Papers19
reporting similar experiments. such as the original experiment by Freedman
and Clauser,20 are not discussed here, because they contain
insufficient information with regard to the “accidental” or “background"
that is subtracted from the raw data to permit an adequate comparison with
the classical physical optics prediction. As
expected from the classical theory or Wesley's causal quantum theory, the result should be independent of the distance
between the two independent detectors, as observed by Aspect et al.3 As expected from
classical theory or Wesley‘s causal
quantum theory, the result should be independent of switching the
relative angle of polarization of the two independent polarizers while the
two photon bursts are in flight as observed by Aspect et al.5 |
Key words: traditional quantum theory, local causality |
7 |
2 |
240-242 |
ISSN: 0836-1398 |
||
Proposed Weber Potential with Absolute Velocities |
1995 |
Jul |
Foundations of Physics Letters |
The
Weber potential U is limited to
relative velocities between charges V
less than (2c)1/2 and fails when V ® 2c. If the relative
velocity of action between charges is c, then U equals the root-mean-square average of the retarded and advanced
Coulomb potential. But, if the velocity of action c is absolute, in agreement
with light propagation, then V ® 2c must be admissible. A potential W is proposed , involving
absolute individual charge velocities, that permits V ® 2c and yields W = U for small velocities. |
It appears
that the rate Q that the action, such as "virtual photons", can be
radiated or absorbed in the direction R
must be a function of the absolute velocity of the charge v; thus, Q = Q0 (1 – (v · R/cR)2)1/2
, (10) where Q is
the rate when v • R/cR = 0. The
interaction between°charges can, thus, be expected to go to zero when one
charge nears the speed of light, whether it recedes or it approaches the
other charge. This behavior is indicated by the two square root factors on
the right of Eq.(8). This
speculation, indicated by Eq.(10), seems to be supported by the observed
decreased probability or rate of emission of daughter particles from a
rapidly moving radioactive particle with the velocity v governed by a similar
formula, Q = Q0 (1 – v2/c2)1/2
. (11) The effect
can be derived as a statistical mechanical effect (13). The velocity v in Eq.
(11) should be taken as the absolute velocity of the radioactive particle.
This conclusion is supported by the ability to determine the absolute
velocity of the solar system using Eq.(11) and the observed cosmic ray muon
flux anisotropy (14). |
Key words: electrodynamics, Weber potential, absolute velocities
|
8 |
1 |
93-98 |
ISSN: 0894-9875 |
||
Oneway Sagnac Device to Measure Absolute Velocity |
1994 |
Jan |
Foundations of Physics Letters |
The
difference in the intensity of light produced by two independent beams
passing in opposite directions through a oneway Sagnac device may be used to
measure the absolute velocity of the device and, thus, the solar system. |
Since the
magnitude of the absolute velocity of the solar system is about 300 km/sec;
v/c - 10 -3. This means from Eq. (16) that it is necessary to
measure the quantity D Irms /I0 = 4p v/c to within an
accuracy of 10-2. Since differences in intensities can be readily
determined to about 10-5, using sensitive bridge networks; it
would seem that the · absolute velocity of the solar system could be
determined by this method to three places with an error in the third. If larger
path differences can be achieved, where D = (2n + 1) l/2, where n is an
integer, then still greater accuracy can be achieved; since from Eqs. (14)
and (15) D I /I = 4p (2n + 1) v/c. The discussion
above is for the magnitude of the component of the absolute velocity of the
laboratory lying in the plane of the device. At a northern (or southern)
latitude the absolute orientation of the plane of the device (if kept level
in the laboratory) will change in the course of a day. Moreover, one need
only make observations of DI for limited portions of a cycle of
the rotating device. Thus in the neighborhood of a particular fixed angle q, one might, for
example, examine values of D I for W t lying in the range
q - p/8 £ W t £ q + p/8. From Eq. (14) a
maximum positive difference D I could then be expected when q = f0 , the direction of
the component of the absolute velocity v in the plane of the device. It is
clear that a variety of modes are available for making observations to
determine the direction as well as the magnitude of the absolute velocity of
the laboratory and, thus, of the solar system. |
Key words: oneway Sagnac device, absolute velocity measurement |
7 |
5 |
493-499 |
ISSN: 0894-9875 |
||
Pinch Effect and Ampere Tension to Drive Hering's Pump |
1994 |
Jun |
Foundations of Physics Letters |
Contrary
to Northrup's claim, the pinch effect, predicted by either the Biot-Savart
law or the original Ampere law, accounts for less than half the necessary
force to drive Hering's pump. The longitudinal Ampere tension, which is not
predicted by the Biot-Savart law, is sufficient to account for the remaining
force necessary. |
Northrup
[1] reports that for R2 = 1.27 cm, R1 = 0.635 cm, and I
= 180 abamp that the mercury rose to a maximum height of h(observed) = 1.524 cm. (22) According
to formula (8), where the density of mercury is z = 13,546 gm/cm3
and the acceleration of gravity is g = 980.0 cm/sec2, the
maximum height predicted by the Biot-Savart-Maxwell theory should have been h(Biot-Savart-Maxwell) = 0.723 cm.
(23) This
predicted height is, thus, less than half the observed height. Due to
experimental imperfections the observed height should be less than the ideal
height predicted by theory. Since no force other than the pinch force,
leading to the prediction (23), is available to drive the mercury in Hering's
pump according to the Biot-Savart-Maxwell theory; the Biot-Savart-Maxwell
theory fails. From
Northrup's [1] Fig. 6 the height of the mercury cylinders are estimated to be
M1 = 2.54 cm and M2 =3.36 cm; and the dimension of the
circuit is roughly chosen as L = 18.3 cm. From Eq. (21) the height the
mercury should rise according to Ampere's law (1) is roughly estimated to be h(Ampere) = 2.048 cm. (24) Although
no numerical agreement can be expected here in ignorance of the precise
geometry of Northrup's setup and in view of the approximations used; this
result (24) does indicate that the Ampere theory, which includes both a pinch
effect; and a longitudinal tension can account for the force necessary to
drive Hering's pump. |
Key words: Ampere force, pinch effect, Herin's pump, Biot-Savart
law |
7 |
1 |
95-104 |
ISSN: 0894-9875 1572-9524 |
||
Weber Potential from Finite Velocity of Action? |
1992 |
Dec |
Foundations of Physics Letters |
The
Weber potential energy U for charges q and q' separated by the distance R is
U = (qq'/R) [1 - (dR/dt)2 /2c2. If this potential
arises from a finite velocity c of energy transfer Q', where the retarded rate
of transfer from q' to q is dQ(t-R/c)/dt = Q' [l - (dR/dt)/c] and where the
advanced rate from q to q' is dQ(t+R/c)/dt = Q' (1 + (dR/dt)/c), then the
resultant time-average root-mean-square action is given by Q' (1 - (dR/dt)2/c2)1/2
» Q' [1 - (dR/dt)2 /2c2). Identifying Q'
with the Coulomb potential energy qq' /R, the Weber potential is obtained.
Using the same argument, Newtonian gravitation yields a corresponding Weber
potential energy, qq' /R being replaced by ( - Gmm' /R). |
Since the
early days of electrodynamics there have been attempts to derive Weber's
electrodynamics fran Coulomb's law using a finite velocity of action. None of
these prior attempts has been successful. First,
because W. Weber [11, Gauss [21], Helnitoltz [22], C. Neumann [23], and others,
attempting to prove the conservation of energy for velocity dependent
potentials using Lagrangian formalism and becoming thereby confused and mired
down in unnecessary mathematical complications, made frequent errors. Here
the proof, indicated by Eqs. (1) and (2) above is trivially obvious. (This
proof also indicates the nature of the velocity dependence that will allow
energy to be conserved.) In general, Lagrangian formalism (with its
Hamiltonian and variation principle) should be avoided; as it can produce
more problems than it can solve. The fundamental empirical physics is
contained in Newton's laws; and Lagrangian fonnalism "begs the
question" by requiring the solution of the problem to be partially known
(an energy integral of the motion) before the problem can even be stated. Second,
the finite velocity of action has been restricted to retarded action alone,
which involves the oneway effect of a source charge upon a detector charge.
The recoil effect on the detector charge given by the advanced action has
been entirely overlooked. The retarded action alone necessarily leads to a
first order effect in (dR/dt)/c, as indicated by Eq. (5) above; but the Weber
potential, Eq. (1), involves a second order effect in (dR/dt)/c. C. Neumann's
[23] claim of having obtained a second order effect (from a first order
effect) arose from an arbitrarily chosen potential and an improper use of the
Lagrangian method. Similarly, the claim by Gerber [24] (for gravitation) to
having obtained a second order effect (from a first order effect) arose from
his improper use of the Lagrangian method. Clausius [25) refuted the claims
of C. Netunann [23] (on still other grounds) as well as similar claims by
Riemann [26] and Betti [27]. G.B. Brown [28] claims to having obtained a
Weber like force from Coulomb's law and retarded action; but he presents no
mathematical derivation. Here out-and-back action, advanced as well as
retarded effects, are included, which results in a net second order effect,
as indicated by Eq. (9). The present theory, although an improvement, is
still speculative. |
Key words: electrodynamics, Weber potential, action velocity
finite, Newtonian gravitation, |
5 |
6 |
597-604 |
ISSN: 0894-9875 |
||
EMPIRICALLY CORRECT ELECTRODYNAMICS |
1997 |
Apr |
Foundations of Physics Letters |
The
electrodynamics that predicts all known relevant observations is based upon
the force F = (qq'R/R3)[1 - 2v
· v'/c2 + 3(v · R)(v'· R)/c2R2
+ (a - a') · R/c2] on charge q at r with the absolute velocity v and acceleration a due to charge
q' at r' with absolute velocity v' and acceleration a'. where R = r - r ' . This force yields Ampere's original empirical law for
the force between current elements, which predicts the many effects due to
Ampere tension between colinear current elements. It yields Faraday induction
as well as Müller's localized unipolar induction. The force on an accelerating
charge due to a stationary charge yields Lenz's law for the induced back emf;
and, when applied to gravitation, qq' being replaced by - Gmm', it yields the
inertial force ma, confirming Mach's priniciple. For charge velocities
approaching the velocity of light c it predicts the results of the Kaufmann‐Bucherer
experiments and the Bertozzi experiment, assuming neomechanics, or mass
change with velocity. It is readily written as a field theory. Introducing
time retardation, it yields waves and radiation. It predicts the observed
zero self-torque on the Pappas‐ Vaughan Z-shaped antenna. Energy is conserved. The Weber
electrodynamic theory is shown to fail . |
Since the
experiments usually cited to establish neomechanics involve simultaneously questions
about the electrodynamics as well as the mechanics; the canclusions based on
these experiments have been questioned as ambiguous. The electrodynamics
proposed here fits all known observations if neomechanics. or mass change
with velocity, is assumed. This success, thus, seems to provide strong
evidence in favor of neomechanics as well as the proposed electrodynamics. In
addition, there is evidence for neomechanics that does not depend upon
electrodynamics. Neomechanics can be derived from the Voigt‐Doppler effect for light by considering the
momentum and energy of photons [43]. Using mass-energy equivalence, that is
firmly established empirically in nuclear and particle physics, the change in
kinetic energy v · d(mv) of a particle may be equated to a change in i t s mass-energy
[44]; thus, d(mc2)
= v · d(mv) = v2dm + md(v2/2).
(47) This Eq.(47)
may be immediately integrated to yield m= m0/√ (1- v2/c2), (48) where m0
is a constant of integration, the mass when v = 0. Empirically
it would appear that the absolute velocity of the particle is needed in the g factor for
neomechanics, as assumed here. The radioactive half-life of cosmic‐ray muons, being proportional to the g factor and thus to the
absolute velocity of the muons, produces an anisotropy in the sea‐level flux of muons. Observations of this
anisotropy [45] has been used to determine the absolute velocity of the solar
system in agreement with other observations. |
Key words: electrodyamics, forces, empirical tests, fields,
Weber |
10 |
2 |
189-204 |
ISSN: 0894-9875 1572-9524 |
||
A Mathematical Error in the Lienard-Wiechert Retarded Potentials |
2000 |
Dec |
Physics Essays |
The derivation of the Lienert‐Wiechert
retarded potential involves a mathematical error, so it is not a valid
solution to the inhomogeneous wave equation, and it does not represent
retarded action correctly. The correct retarded potential satisfying the
inhomogeneous wave equation is presented, which agrees with the independent
result derived from first principles based directly upon retarded action. |
This Lienard
‐ Wiechert result (24)
or (25) does not agree with the correct retarded Coulomb potential (12) or (13)
derived from the inhomogeneous wave equation (1) and from first principles.
Thus, the Lienard ‐ Wiechert potential is
not only not a proper solution to the inhomogeneous wave equation (1), it
also violates first principles. It may be noted from (24) or (25) that the
Lienard ‐ Wiechert. retarded
potential implies a velocity of action that is not c but depends upon the
velocity of the source, contrary to observations |
Key words: retarded potential, Lienard-Wiechert wrong,
electrodynamics |
13 |
4 |
589-592 |
ISSN: 0836-1398 |
||
-- |
1980 |
Jan |
Foundations of Physics |
-- |
Comments on
Prokhovnik's Critique of Marinov's Experiment – placeholder. |
Key words: coupled mirror experiment, velocity of the sun |
10 |
9-10 |
803-805 |
ISSN: 0015-9018 1572-9516 |
||
-- |
1980 |
Jan |
Foundations of Physics |
-- |
Comments on
Prokhovnik's Critique of Marinov's Experiment – placeholder. |
Key words: coupled mirror experiment, velocity of the sun |
10 |
9-10 |
803-805 |
ISSN: 0015-9018 1572-9516 |