Maxwell's lost unified field theory of electromagnetics and gravitation

List members , Tom Bearden had come up with an excellent explanation of how electrogravitation was forgotten when the mathematical tool of Quaternion was discarded in favour of Vector Mathematics . When Oliver Heaviside truncated Maxwell's original 20 equations to just 4 , he essentially eliminated Scalar force :-

Maxwell's lost unified field theory of electromagnetics and gravitation

T. E. Bearden

It is revealing to discuss the basic genesis of modern electromagnetic theory starting with Maxwell's original theory expressed in quaternions (1) (2) (3).

Most of us are familiar with four fundamental equations of theoretical electromagnetics, universally taught in Western universities and colleges as "Maxwell's Equations". (See Table 1) It may come as somewhat of a surprise, at least to the casual scientist or engineer, that these equations never appeared anywhere in Maxwell's fundamental "Treatise". (4) (5). In fact, they are entirely due to the interpretation of a single brilliant man, Oliver Heaviside (6) (7).

The Early Struggle in EM Theory

Maxwell wrote his first paper on electromagnetics in 1864 - during the time of the US Civil War, and the paper was published in 1865 (8). At that time, the modern form of vector analysis had not yet been completed (9). The prevailing mathematics available for use in deeper electrical physics was the quaternion theory founded by Hamilton in 1843 (10). Hamilton's quaternion theory was the first significant nonarithmetic mathematical system (11).

Maxwell's original expression of his theory was written in quaternions and quaternion-like mathematics. It attracted singularly attention (12), and was considered only speculation until Heinrich Hertz discovered electromagnetic waves in 1885-1888 (13) (14).

Indeed, early on, mathematicians strongly attacked Maxwell for his - to them revolutionary and startling concept that energy could exist in a massless wave and travel through space (15). While that concept is considered self-evident to today's scientist and engineer, it was considered incredible and starting when Maxwell proposed it.

TABLE 1:
DIFFERENTIAL VECTOR FORM OF HEAVISIDE/MAXWELL EQUATIONS

Maxwell's equations (Gaussian units):




Combining these equations with the Lorentz force equation and Newton's Second Law of Motion is thought to provide a complete description of the classical dynamics of interacting particles, and electromagnetic fields.


Two vectors, not interlocked.

a. Two vectors which are not interlocked by the medium (abstract vector space), simply pass through each other and do not interact. They cannot be said to have a common resultant, except fleetingly.


Two vectors, interlocked.

b. Two vectors which are interlocked by the medium (abstract vector space) do not pass through each other but do interact. They can be said to have a common translation resultant externally. However, internally they must be said to produce a stress in the medium (abstract vector space).

Figure 1: A serious flaw exists in the application of the abstract vector analysis to physical systems. Only when the local gravitational effects are fleeting or negligible, does this flaw become negligible - and the vector theory become a valid representation (model).

Maxwell himself was an excellent mathematician of the time (16) (17), of ability far beyond that of most of the contemporary electrical theorists and experimenters (18) (19). Possibly as a result, both his early lectures and writings were therefore difficult - or even nearly impossible - for his contemporaries to comprehend (20). It required the translation of Maxwell's theory (20) into the abbreviated and clearer, more readily understood vector mathematics of Oliver Heaviside (22), and the publication of clearer and much simpler expositions by Heaviside (23), before "Maxwell's theory" - or at least the Heaviside subset of it - began to capture the attention of leading university electrical scientists (24).

At the same time, the major expositor of the tough, obtuse and very difficult quaternion theory - Prof. Peter Guthrie Tait - was a stubborn, fiery, argumentative mathematician rather than a physicist. He also delayed preparing his exposition of quaternion theory until a number of years had passed and his mentor, Hamilton, had had time to rework his own obtuse, difficult book (25) (26). While Tait delayed, scientists and engineers beset with practical problems in the real world of industry were frantically seeking a simplified theory that: (1) could be readily grasped and understood, and (2) could immediately be applied to solve their practical problems of equipment design and building. The only available and accessible simplified theory of electromagnetism that fitted their urgent needs was the clear, simplified and imminently practical work of Oliver Heaviside - who himself held no degree and was self-educated.

Accordingly, the die was cast. Working engineers and leading scientists focused upon Heaviside's vector interpretation of Maxwell's difficult quaternionic expressions. In Heaviside's version the engineering calculations were enormously eased, and electrical engineers could get solutions to their pressing problems and get on with their business of constructing electrical devices and electrical machinery. Except for a very few mathematical scientists who could handle the heavy labours of quaternions, Heaviside's electromagnetics rapidly became the ipso facto standard.

A major schism developed between the increasingly isolated few quaternionists and the steadily multiplying vectorists, slowly growing to white heat in the literature A final duel to the death became inevitable.

The duel exploded before the turn of the century and a short, sharp debate occurred among about 30 or so scientists and in about 12 journals (27). The culmination was quick - complete victory by the vectorists. The quaternion EM theory was simply cast out, and the scientific community turned to Heaviside's limited vector subset of the Maxwell theory. The short "debate" only confirmed what had already become an accomplished fact: the Heaviside vector analysis translation of the EM subset of Maxwell's theory was already universally accepted and applied.

Vector Analysis Excised Electrogravitation

Ironically, in their great haste to seize upon Heaviside's simpler, clearer explanation of EM and get on with solving practical engineering problems, the nineteenth century scientists gave up something of far greater value: the unification of EM and gravity, and the ability to directly engineer gravitation itself.

Maxwell had actually written a unified field theory of electromagnetics and gravitation - not just the unification of electricity and magnetism as is commonly believed (28). Further, this can readily be shown by examining some significant even startling - elementary differences between quaternion mathematics and the present vector mathematics (29) (30) (31) (32).

Let us briefly look at one of these key differences, to show that the present vector mathematics expression of Maxwell's theory is only a subset of his quaternion theory (33).

What Heaviside's theory specifically omitted was electrogravitation (KG) - the ability to transform electromagnetic force field energy into gravitational potential energy, and vice-versa. And that has been omitted because of the assumptions of the vector theory in the nature of: (1) EM vector field combination, and (2) a zero-vector resultant of the interaction of multiple nonzero EM force vectors (34) (35).

Briefly, in Heaviside's vector mathematics, the abstract vector space in which the vectors exist has no stress nor consequent "curvature" in it. That is, the mathematical vector space does not change due to interactions between the vectors it "contains". This, of course is not necessarily true in the "real space" of the physical world. Thus when such an abstract vector space and its concomitant coordinate system are taken to model physical space (physical reality), the model will be valid only when the physical space itself has no appreciable local curvature, and is in a state of total equilibrium with respect to its interactions with observable charged particles and masses.

So abstract vector theory implicitly assumes "no locked-in stress energy of the vector space itself". By assumption, the only interactions are between the objects (the vectors) placed in/on that space. Therefore, when two or more translation vectors sum or multiply locally to a zero-vector translation resultant, in such an "unstressable" vector space one is justified in: (1) replacing the system of summing/multiplying translation vector components with a zero-vector, and (2) discarding the previous translation vector components of the zero-vector system. That is, one may properly equate the translation zero-vector system with a zero-vector, since the presence or absence of the combined vectors can have no further action. Specifically, axiomatically they exert no stress on the abstract vector space. Under those assumptions, the system can be replaced by its equivalent zero-factor alone.

Note that, applied to electromagnetics, this modeling procedure eliminates any theoretical possibility of electrogravitation (EM stress curvature of local space-time) a priori.

Force Vectors are Translations of Stress

Conceptually, a force vector is actually a release of some implied stress in a local medium. The force is applied to create stress in a second local region immediately adjacent to the primary region of stress. Of course the stress being thus "translated" by the force vector may be either tensile or compressive in nature, but a priori the force vector always represents the translation of that stress from its tail-end toward its head.

Consequently, an EM force vector is a gradient (inflow or outflow) in a scalar EM potential (stress), where the referent potential stress may be either tensile or compressive. Since modern Heaviside-type vectors do not distinguish between, or even recognize, the two "head and tail" scalar EM potentials involved in a vector, one needs to refer to Whittaker (36) to get it right. Whittaker, a fine mathematician in his own right, showed that any vector field can be replaced by two scalar waves. Unfortunately, the electrogravitational implications of Whittaker's profound work were not recognized and followed up, and their connection to Maxwell's quaternionic EM theory was not noticed nor examined.

So the idea of a vector EM force represents a release of a primary "tail-associated" scalar potential, and a bleedoff of that potential. It represents an increase in its primary "head-associated" scalar potential, and a bleed into that potential. Each scalar potential itself represents trapped EM energy density in the local vacuum, in the form of two or more (even an infinite number of) internal (infolded) EM force vector components (which may be either fixed, dynamic, or a blend of the two). The trapped energy density, however, may be either positive or negative with respect to the local energy density of the standard ambient vacuum, since the potential may be either compressive or tensile.

Maxwell's Electrogravitation Was Lost

Today we know that all potentials are gravitational and curve space-time; it is well-known in general relativity that gravitational curvature is simply the set of many potentials. One therefore can see that a vector EM wave represents a progressive translation wave in the vacuum EM potential - in the local EM-induced curvature of space-time. This EM change in local curvature of space-time moves away at the speed of light, producing only the most fleeting or momentary changes in curvature of any localized space-time region.

We note here as an aside: Only in a standing EM wave and in phase waves of coupled EM waves is there any deviation from the "momentary and then lost" change in the local space-time curvature. In those cases, the "persistence" of the local change in potential is an adverse function of frequency; hence at extremely low frequencies EM potential change persistence is sufficient to produce some very small electrogravitational effects. The effect is still slight, however, since the normal concept of "standing EM wave" represents a standing force vector situation, which is actually a stabilized spatial bleedoff of the potential. If a standing scalar EM wave is produced as in the two opposing pump waves in nonlinear optics pumped phase conjugate mirrors - then the stress is not primarily spatial, but temporal. Spatial effects then occur by particle-coupling - either in the virtual particle flux of vacuum or from the nucleus of an atom to the electron shells, and out into the material lattice structure. In the case of a standing scalar wave, electrogravitational effects are highly magnified because of the conversion of the primary potential stress to the time component. This increases the EG effects obtainable by a factor up to 9x10exp16. For this situation, at ELF standing scalar EM wave frequencies, very appreciable electrogravitational effects can be locally obtained.

The "Bottom Line" of EM Force-Field Theory

Thus concentrating only on the force fields of Maxwellian EM theory is equatable to concentrating on the situation where any localized electrogravitational effect that is temporarily formed is instantly released at the speed of light. The EG-effect in such a system is so small and fleeting, that the possibility of any persisting or significant local gravitational effects may be ignored.

Because of this, in any EM theory based only on the force fields and focusing only on their effects, then: (1) EM forces and their derivative effects may be represented by elementary Heaviside/Gibbs vector theory, including the equivalence of the zero-translation vector and any zero summed/multiplied system of nonzero translation vectors, (2) a system of EM forces which sum or multiply to a zero resultant may be discarded outright and the zero-vector substituted, (3) the effect of an EM potential is only to serve as an accumulator from which an EM force may be produced, and only its nonzero gradient will be thought to have any physical significance, (4) translation of EM forces (i.e., of potential gradients) and their effects on charged matter will assume primary importance, and (5) the potentials themselves may be regarded as simply mathematical conveniences and of little importance. This is precisely the subset of Maxwell's electromagnetics extracted and written so clearly by Heaviside.

As was Hertz, Heaviside was adamantly opposed to attaching any sort of physical reality to the potentials, preferring that they should be excised and "murdered". An indelible imprint - that potentials were "mysticism" and at best only mathematical conveniences - was imposed upon physics by Heaviside and Hertz (21). This rigid mindset was not to lessen (at least in quantum mechanics) until 1959; it was not to be assuaged until the mid-1960's (22) (37).

How EM Potentials are Regarded Today

So in 1988, we have finally arrived at the state where the potentials are more-or-less understood by a consensus of quantum physicists as being the primary EM reality, while the force fields are now seen to be secondary effects generated from the potentials.

This understanding, however, still has a long way to go before it penetrates the main bastions of physics and electrical engineering. Most scientists and electrical engineers are still adamantly committed to the Heaviside version of Maxwell's theory, and are strongly conditioned that the EM force fields are the primary effectors in electromagnetics.

They are also nearly totally resistant to the idea that there may be a fundamental error in automatically replacing a zero-resultant system of EM translation force vectors with a zero factor, rather than replacing the system with the combination of a conditional zero vector (conditional for translation only) and a scalar stress potential. Consequently, most orthodox scientists and engineers are still strongly conditioned against quaternions, and erroneously believe that Heaviside's translation was complete. Seemingly it has never occurred to most mathematicians and scientists that zero-vectors are usually not truly equal. Stress-wise, zero resultant combinant systems of multiple translation vectors usually differ in: (1) magnitude, (2) polarization, (3) type of stress, (4) frequency components, (5) nonlinear components, and (6) dynamic internal variation (38).

Vectors Versus Quaternions: The Cross Product

In a conventional 3-dimensional vector, one may have three vector components, such as (in Cartesian coordinates):


(1)

where


are unit vectors in the directions of the x, y and z axes respectively and a, b and c are constants. In the right side of equation (1), the three components of vector v are:
(2)

Obviously if the vector components of vector


are zero vectors, then:
(3)

We shall be interested in the vector product of two identical vectors


, where
x
=
(4)

where A is the length (magnitude) of vector


,
is the angle between the two vectors (in this case zero), and
is the zero vector.

After Heaviside and Gibbs, electrical engineers are trained to replace the cross product


x
with the zero vector
, discarding the components of the zero vector system as having no further consequences, either electromagnetically or physically.

Now let us look at the comparable quaternion expression of this situation. First, in addition to the three vector components, a quaternion also has a scalar component, w. So the quaternion q corresponding to vector


is:
(5)

The physical interpretation of equation (5) is that there locally exists a stress w in the medium and a translation change


in that stress.

When the quaternion is multiplied times itself (that is, times an identical quaternion), the vector part zeros, just as it did for the vector expression. However, the scalar part does not go to zero. Instead, we have:


(6)

There is a very good physical interpretation of this result. The zero translation vector resultant


for the system shows that the system now does not produce translation of a charged particle. Because the force vectors have been infolded, the scalar term shows that the system is stressing, and the magnitude of that stress is given by the scalar term
.

Notice that the zero vector in equation (6) does not represent the absence of translation vectors, but it represents the presence of a system of multiple (in this case, two) vectors, one of them acting upon the other in such a manner that their external translation effect has been lost and only their stress effect remains (39). The quaternion scalar expression has, in fact, captured the local stress due to the forces acting one on the other, so to speak. It is focused on the local stress, and the abstract vector space, adding a higher dimension to it.

In other words, the


in equation (6) represents the internal stress action of a nontranslating system of vectors that are present, infolded, and acting internally together on the common medium that entraps them and locks them together. The two translation vectors have formed a deterministically substructured medium-stressing system, and this is a local gravitational effect.

One sees that, if we would capture gravitation in a vector mathematics theory of EM, we must again restore the scalar term and convert the vector to a quaternion, so that one captures the quaternionically infolded stresses. These infolded stresses actually represent curvature effects in the abstract vector space itself. Changing to quaternions changes the abstract vector space, adding higher dimensions to it.

Artificial Electrogravitational Timestress

Let us assume for a moment that the two identical vectors


and
are electric forces. Then
represents the case where they are "locked together" in a local medium.

We now recall the modern quantum mechanical view that no "static" thing exists as such in the universe. A macroscopic "static" force - at quantum level - represents a continual constant rate of quantum change. In the case of an electrical force, it represents a continual constant rate of flux exchange of virtual photons.

The zero vector in equation (6) represents a constant exchange of macroscopically organized virtual energy into the local medium. Consequently, it represents continual internal work into and onto the local medium, but without translating it.

So a zero vector system of nonzero vector components represents internal or "infolded" constantly-working forces (internal to the medium) where the system does not cause translation of the point or region of application, whereas a nonzero vector and a nonzero vector system represent external forces which cause at least some translation of the point or region of application, unless this translation is nullified by other forces (40).

Physically, equation (6) may now be seen to state that: (1) internal forces (in the form of an internal stress) are present in the local medium but no translation force is present, and (2) these internal forces are continually performing internal work on the local medium without external translation. Since the translation vector component has spatially zeroed, then the scalar component that results may be taken to represent the time rate of expenditure of this internal work that is being done on the local medium - that is, it represents the extra internal power (which is simply the extra energy density of time) now being expended locally in and on the medium as a sink. If the vector components of the zero vector system are oriented outward, then the scalar stress component changes sign and it represents the extra internal power locally flowing out of the medium as a source.

Infolded Structuring is Dynamic and Complex

As can be realized, by changing the magnitudes, phasing, directions, rotations and dynamic frequencies of the vector components of the zero-vector stress system, very elaborate and sophisticated structuring of the local space-time medium (the local vacuum) may be deterministically constructed and controlled at will.

The continually performed internal work represents an increase or decrease in the local energy density of the medium, hence in the stress of the medium. However, note that this stress - either compressive or tensile is in and on the rate of flow of local time in the region. This timestress represents an artificial stress potential, where by "artificial" we mean that the timestress of the local medium is structured and macroscopically patterned (and controlled) deterministically; translation of that timestress is spatially radiating out over a finite macroscopic neighbourhood of the local point or region of application. This may be contrasted to a "natural" potential where the internal component stress vectors in the surrounding spatial neighbourhood are microscopic and randomly varying in all directions.

In equation (6), then, we have a local gravitational effect - a local increase in the energy density of a vacuum. Because the large EM force is utilized rather than the weak G-force, and because it is a timestress condition, it is a powerful local general relativistic effect. Because the local vacuum flux is significantly altered, we have a locally curved space-time which is significantly anisotropic, in violation to one of the fundamental (and crippling) assumptions of Einsteinian general relativity. Further, this is an electrogravitational effect. since it is a gravitational effect produced by purely electromagnetic means (41).

We have therefore produced a local curvature of space-time, and done so electromagnetically.

What is even more astonishing to the conventional relativist is that this local curvature startling enough in its own right - is also deterministically structured, and we can control the structuring at will. Hence we can engineer (structure) the vacuum itself (42).

But to return to equation (6).

The EG Sine-Squared Stress Wave

Suppose that


represents a time-varying
-field vector and its amplitude is of the form:
(7)

Then:


(8)

and this is a scalar EM stress wave, of variation of the local curvature of the vacuum. It is a powerful electrogravitational (scalar electromagnetic) wave, particularly if we produce it as a standing wave and use it to "pump" atomic nuclei in a rhythmically varying manner (43).

Briefly, a sine-squared wave has the appearance of a sort of "skinny" sine wave a near-sawtoothed wave that is now oscillating about an increased bias. In other words, the wave of equation (8) represents a scalar EM (an KG) wave that pumps the atomic nuclei of a targeted material, holding those nuclei at an excited average potential level. The wave has strong and very useful applications in - among other things - electrohealing. (44).

Example: Application to Explain Four-Wave Mixing

Now most modulations are represented by similar multiplication between two waves. Suppose we have two equal-amplitude, continuous monochromatic


-field sine-waves, introduced into a nonlinear dielectric medium in antiparallel and antiphased fashion (45). The medium will act as a modulator, causing the two waves to together", so that their
-fields sum everywhere to a zero resultant vector spatially. A standing sine-squared scalar EM (electrogravitational) wave of the stress of time will be formed by the waves, very similar to equation (8) above.

This scalar wave will not appreciably react to the orbital electron shells of an atom of the dielectric, but will not pass through these outer "Faraday cages", reaching directly into the highly nonlinear nucleus itself.

We invoke the quantum mechanical picture of the nucleus as: (1) a region of local sharp curvature of space-time, (2) incredibly dynamic, with particles of every kind continually changing, transmuting, giving off other particles and waves, being absorbed, etc., (3) containing violent and dynamic charges and locally trapped fierce currents, and with field strength fluctuations reaching 10 and above, (4) in violent virtual particle exchange with the neighbouring vacuum, and (5) on the average, positively charged, so that it is -- on the average -- time reversed (46).

The presence of the sine-squared EG wave in the nucleus alters the nuclear potential by - on the average - the "DC" component potential amount. However, this delta in the potential is dynamic, varying as the sine-squared. This dynamically oscillating potential wave constitutes a pump wave on the nucleus itself, and it is rhythmically pumping the amplitude of the nuclear potential itself. We may think of the pumped nucleus as now conditioned to function as a parametric amplifier, ready to be given another "signal input" (47).

Now let us introduce yet another small sine wave into the nonlinear dielectric. It will modulate each of the two pump wave components, forming a scalar modulation upon the scalar sine-squared pump wave, and riding directly into the nucleus. In positive time, this now constitutes a "signal input" to the "parametric amplifier nucleus". The input is absorbed and amplified, up to the level of the pumping energy available in the pump wave that can be "scavenged up and gated".

Internal Absorption Can Be External Emission

However, the nucleus, being time reversed, also produces a time-reversed absorption which is seen spatially by the external observer as constituting emission! That is, in his own positive time, the external observer sees the time-reversed absorption as an emission event. Further, this is a time reversal - and hence an "emission" to the external observer of the entire parametrically amplified signal wave. (After all, in reversed time it is the pump wave that is modulating the signal wave - a principle of importance.)

So the powerfully amplified signal wave in the parametric amplifier is seen by the external spatial observer to be emitted from the nucleus. In short, a time-reversed and powerful scalar wave is emitted by the nucleus, passing back along the exact path taken by the original "signal wave". To a time-reversed entity, that invisible path is its path ahead of it in positive observer time. The external observer sees the emitted wave emerge as a powerfully amplified time-reversed EM wave, backtracking precisely back along the exact path taken by the signal wave, and appearing everywhere in phase spatially with the continuous signal wave.

In 4-space, of course, the time-reversed wave is out of phase in the fourth dimension, time.

Four-Wave Mixing is Like a Triode

This is the mechanism by which four-wave mixing provides a powerfully amplified time-reversed replica of the signal wave.

Note that the entire process can be compared to a triode: the signal wave constitutes the grid signal, the pump wave constitutes the plate voltage, and the nucleus of the atom in the dielectric provides the self-powered cathode.

We put in the signal wave (grid signal) and get out a 180-degree phase-shifted, amplified phase conjugate replica (amplified plate signal). The difference is that the PCR is phase-shifted in time, not space.

Negative Energy, Nuclear Binding and Transmutation

Note also that negative energy is already involved in the time-reversed nucleus of the atom, as in negative time (48). Excess "negative energy" in the nucleus means "additional binding energy", which will be expressed as additional inertia and coupled onto the electron shells. In this case the "inertial mass" of the pumped material increases, inversely as the pumping frequency. Less "negative energy" in the nucleus means "decreased binding energy", which places the nucleus in an unstable state. The nucleus can actually be transmuted by this means (in many cases toward barium, which apparently has the least binding energy per nucleon). Transmutation to an isomer appears easiest, though this is not always the case (49). It seems theoretically possible to design a complex pumping mixture of frequencies and power levels which will cause a specific radioactive nucleus to undergo transition to a harmless element or combination of elements. The main point is, scalar EM allows direct production of structured electrogravitational potentials in the nucleus, opening up the possibility of direct and controlled engineering of the nucleus itself.

Perspective

Obviously, in this short paper we have only scratched the surface. We have presented only the barest illustration of how Maxwell's original quaternion theory was actually a unified field theory of electrogravitation, where gravitation deals with the stress (enfolded and trapped forces) of the medium, and electrogravitation deals with the electromagnetic stress (enfolded and trapped EM forces) of the medium.

Of course, a great deal more work is necessary, but at least this indicates the way to go to obtain a unified field theory of electromagnetics and gravity that is practical and engineerable (50). I can only state that the indicated approach works in the laboratory, and let it go at that without further elaboration.

Recapitulation: From Maxwell to 1900

In summary, Maxwell himself was well-aware of the importance and reality of the potential stress of the medium (51). However, after Maxwell's death, Heaviside - together with Hertz - was responsible for striving to strip away the electromagnetic potentials from Maxwell's theory, and for strongly conditioning physicists and electrical engineers that the potentials were only mathematical conveniences and had no physical reality. Heaviside also discarded the scalar component of the quaternion, and - together with Gibbs - finalized the present modern vector analysis.

The scalar component of the quaternion, however, was the term which precisely captured the electrogravitational stress of the medium. By discarding this term, Heaviside (aided by Hertz and Gibbs) actually discarded electrogravitation, and the unified EM-G field aspects of Maxwell's theory. However, the theory and the calculations were greatly simplified in so doing, and this excision of electrogravitation provided a theory that was much more easily grasped and applied by scientists and engineers - even though they were now working in a subset of Maxwell's theory in which gravity and EM remained mutually exclusive and did not interact with each other.

Shortly before 1900, the vectorists' view prevailed, and the Heaviside version of Maxwell's theory became the established and universal "EM theory" taught in all major universities - and erroneously taught as "Maxwell's theory"! Though gravitation had been removed, the beautiful unification of the electrical and magnetic fields had been retained, and so the rise in applied and theoretical electromagnetics and electromagnetic devices began, ushering in the modern age.

Impact on Einstein's General Relativity Theory

Unfortunately, however, the excision of electrogravitation from Maxwell's theory was later to leave Albert Einstein with a quandary: it seemed that the only way space-time could be curved measureably was by and at a huge collection of mass, such as the Sun or a star. Accordingly, in constructing his theory of general relativity, Einstein assumed that the local space-time was never curved (since obviously the observer and his lab instruments would not be sitting on the surface of the Sun or of a distant star). Consequently, he did not write an unrestricted general theory of anisotropic space-time, but instead he wrote a highly restricted sort of "special relativity with distant perturbations" - which, nonetheless, was a revolutionary and epochal achievement.

Ironically, Einstein then spent the remainder of his life vainly trying to find a way to reintroduce electromagnetic fields into his general relativity, and to provide a unified field theory of gravity and electromagnetics. He failed, because his own prior assumption of a locally flat space-time had already effectively ruled out the very thing he sought.

Effect on Western Search For a Unified Field Theory

Today the magical unified theory of gravitation and electromagnetics continues to elude Western scientists, because they nearly universally adhere to Einstein's rejection of a locally-curved space-time. In so doing, the West largely rules out any local, laboratory-bench development of, and experimentation with, general relativistic systems. And in turn, that relegates general relativity to a non-experimental theory and, except for cosmological observations, a sort of "special relativity with distant perturbations."

The "locally flat space-time" assumption saves the conservation laws - and Western scientists have now become nearly totally dogmatic in their subservience to conservation. To challenge the conservation laws - and Einstein's restricted general relativity - leads to ostracization by his peers and vigourous suppression (52).

Soviet Theory of an Anisotropic Space-time

Soviet scientists, on the other hand, regularly publish papers where Einstein's crippling "local flat space-time" assumption is removed and the anisotropy of space-time is unrestricted, strongly implying that they might have developed an experimental unified field theory (53). They also are quite frank to publish statements that in a general relativistic system, conservation laws do not apply (54).

In numerous previous papers and books, the present authour has presented extensive evidence of the Soviet weaponization of electrogravitation and hence of a unified field theory (55).

Impact on Science and Humanity

Thus a great irony now is evident in Western science. More than 120 years ago, Maxwell wrote the first paper in his unified field theory of electrogravitation. Had Western scientists and mathematicians given greater attention to Maxwell's quaternion theory, by 1900 we should have been developing antigravity propulsion systems and interplanetary exploration vehicles.

Certainly humankind could have been lifted to much greater heights than where we are today. And along the way, we just might have avoided two great and bloody World Wars and a host of smaller ones.

In the modern geometrodynamic view, all forces are considered to arise from, and be rooted in, the curvature of space-time - in gravitation. If the curvature of space-time itself can easily be engineered and controlled by electromagnetic means, the extensive application of our present advanced state of electromagnetic development and devices can lead to control of the world of physical reality on a scale heretofore only dreamt of in the minds of our greatest visionaries.

Consider such a vision by Albert Einstein: Quoting:

"It would of course be a great step forward if we succeeded in combining the gravitational field and the electromagnetic field into a single structure. Only so could the era in theoretical physics inaugurated by Faraday and Clerk Maxwell be brought to a satisfactory close."

With the mastery of electrogravitation and the control of physical reality itself in our grasp, the freeing of humankind from want, misery, and poverty would directly follow. The impact on mankind's development would be almost beyond present human conception. Consider this vision from Teilhard de Chardin of the mastery of physical reality and the elimination of man's inhumanity to his fellow man:

"Someday, after we have mastered the winds, the waves, the tides and gravity, we shall harness for God the energies of love. Then for the second time in the history of the world man will have discovered fire."

Like Prometheus of old, in his quaternion EM theory James Clerk Maxwell produced a blazing coal of fire, literally taking the fire of gravitation from Olympus and giving it to human beings. Uncomprehending, scientists heaped ashes over the fiercely glowing coal, and only warmed themselves with the tiny trickle of electromagnetic heat that escaped the dampening ashes. For over a hundred years, the fiery coal has been quietly lying there, buried under the ashes, still glowing brightly.

It is time to be bold. For the enrichment of all mankind, let us uncover Maxwell's long-dormant fiery coal and fan into full bloom the Promethean flame of power that lies sleeping within.

Regards

If one is interested in Maxwell's equations, Eric Dollard should also be studied with his Versor Algebra: https://ericpdollard.com/shop/versor-algebra/

Also @Soretna , Quaternions and "Octonians" could pave the way for a deeper understanding of our Universe :-

FUNDAMENTAL PHYSICS

The Peculiar Math That Could Underlie the Laws of Nature

New findings are fueling an old suspicion that fundamental particles and forces spring from strange eight-part numbers called “octonions.”

](Quanta Magazine)

Cohl Furey, a mathematical physicist at the University of Cambridge, is finding links between the Standard Model of particle physics and the octonions, numbers whose multiplication rules are encoded in a triangular diagram called the Fano plane.

Susannah Ireland for Quanta Magazine

[

Natalie Wolchover

Senior Editor

In 2014, a graduate student at the University of Waterloo, Canada, named Cohl Furey rented a car and drove six hours south to Pennsylvania State University, eager to talk to a physics professor there named Murat Günaydin. Furey had figured out how to build on a finding of Günaydin’s from 40 years earlier — a largely forgotten result that supported a powerful suspicion about fundamental physics and its relationship to pure math.

The suspicion, harbored by many physicists and mathematicians over the decades but rarely actively pursued, is that the peculiar panoply of forces and particles that comprise reality spring logically from the properties of eight-dimensional numbers called “octonions.”

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As numbers go, the familiar real numbers — those found on the number line, like 1, π and -83.777 — just get things started. Real numbers can be paired up in a particular way to form “complex numbers,” first studied in 16th-century Italy, that behave like coordinates on a 2-D plane. Adding, subtracting, multiplying and dividing is like translating and rotating positions around the plane. Complex numbers, suitably paired, form 4-D “quaternions,” discovered in 1843 by the Irish mathematician William Rowan Hamilton, who on the spot ecstatically chiseled the formula into Dublin’s Broome Bridge. John Graves, a lawyer friend of Hamilton’s, subsequently showed that pairs of quaternions make octonions: numbers that define coordinates in an abstract 8-D space.

There the game stops. Proof surfaced in 1898 that the reals, complex numbers, quaternions and octonions are the only kinds of numbers that can be added, subtracted, multiplied and divided. The first three of these “division algebras” would soon lay the mathematical foundation for 20th-century physics, with real numbers appearing ubiquitously, complex numbers providing the math of quantum mechanics, and quaternions underlying Albert Einstein’s special theory of relativity. This has led many researchers to wonder about the last and least-understood division algebra. Might the octonions hold secrets of the universe?

“Octonions are to physics what the Sirens were to Ulysses,” Pierre Ramond, a particle physicist and string theorist at the University of Florida, said in an email.

Günaydin, the Penn State professor, was a graduate student at Yale in 1973 when he and his advisor Feza Gürsey found a surprising link between the octonions and the strong force, which binds quarks together inside atomic nuclei. An initial flurry of interest in the finding didn’t last. Everyone at the time was puzzling over the Standard Model of particle physics — the set of equations describing the known elementary particles and their interactions via the strong, weak and electromagnetic forces (all the fundamental forces except gravity). But rather than seek mathematical answers to the Standard Model’s mysteries, most physicists placed their hopes in high-energy particle colliders and other experiments, expecting additional particles to show up and lead the way beyond the Standard Model to a deeper description of reality. They “imagined that the next bit of progress will come from some new pieces being dropped onto the table, [rather than] from thinking harder about the pieces we already have,” said Latham Boyle, a theoretical physicist at the Perimeter Institute of Theoretical Physics in Waterloo, Canada.

Decades on, no particles beyond those of the Standard Model have been found. Meanwhile, the strange beauty of the octonions has continued to attract the occasional independent-minded researcher, including Furey, the Canadian grad student who visited Günaydin four years ago. Looking like an interplanetary traveler, with choppy silver bangs that taper to a point between piercing blue eyes, Furey scrawled esoteric symbols on a blackboard, trying to explain to Günaydin that she had extended his and Gürsey’s work by constructing an octonionic model of both the strong and electromagnetic forces.

“Communicating the details to him turned out to be a bit more of a challenge than I had anticipated, as I struggled to get a word in edgewise,” Furey recalled. Günaydin had continued to study the octonions since the ’70s by way of their deep connections to string theory, M-theory and supergravity — related theories that attempt to unify gravity with the other fundamental forces. But his octonionic pursuits had always been outside the mainstream. He advised Furey to find another research project for her Ph.D., since the octonions might close doors for her, as he felt they had for him.

Furey posing for a portrait on the grounds of Trinity Hall, Cambridge, where she often works on a yoga mat.

Susannah Ireland for Quanta Magazine

But Furey didn’t — couldn’t — give up. Driven by a profound intuition that the octonions and other division algebras underlie nature’s laws, she told a colleague that if she didn’t find work in academia she planned to take her accordion to New Orleans and busk on the streets to support her physics habit. Instead, Furey landed a postdoc at the University of Cambridge in the United Kingdom. She has since produced a number of results connecting the octonions to the Standard Model that experts are calling intriguing, curious, elegant and novel. “She has taken significant steps toward solving some really deep physical puzzles,” said Shadi Tahvildar-Zadeh, a mathematical physicist at Rutgers University who recently visited Furey in Cambridge after watching an online series of lecture videos she made about her work.

Furey has yet to construct a simple octonionic model of all Standard Model particles and forces in one go, and she hasn’t touched on gravity. She stresses that the mathematical possibilities are many, and experts say it’s too soon to tell which way of amalgamating the octonions and other division algebras (if any) will lead to success.

“She has found some intriguing links,” said Michael Duff, a pioneering string theorist and professor at Imperial College London who has studied octonions’ role in string theory. “It’s certainly worth pursuing, in my view. Whether it will ultimately be the way the Standard Model is described, it’s hard to say. If it were, it would qualify for all the superlatives — revolutionary, and so on.”

Peculiar Numbers

I met Furey in June, in the porter’s lodge through which one enters Trinity Hall on the bank of the River Cam. Petite, muscular, and wearing a sleeveless black T-shirt (that revealed bruises from mixed martial arts), rolled-up jeans, socks with cartoon aliens on them and Vegetarian Shoes–brand sneakers, in person she was more Vancouverite than the otherworldly figure in her lecture videos. We ambled around the college lawns, ducking through medieval doorways in and out of the hot sun. On a different day I might have seen her doing physics on a purple yoga mat on the grass.

Furey, who is 39, said she was first drawn to physics at a specific moment in high school, in British Columbia. Her teacher told the class that only four fundamental forces underlie all the world’s complexity — and, furthermore, that physicists since the 1970s had been trying to unify all of them within a single theoretical structure. “That was just the most beautiful thing I ever heard,” she told me, steely-eyed. She had a similar feeling a few years later, as an undergraduate at Simon Fraser University in Vancouver, upon learning about the four division algebras. One such number system, or infinitely many, would seem reasonable. “But four?” she recalls thinking. “How peculiar.”

Video: Cohl Furey explains what octonions are and what they might have to do with particle physics.

Susannah Ireland for Quanta Magazine

After breaks from school spent ski-bumming, bartending abroad and intensely training as a mixed martial artist, Furey later met the division algebras again in an advanced geometry course and learned just how peculiar they become in four strokes. When you double the dimensions with each step as you go from real numbers to complex numbers to quaternions to octonions, she explained, “in every step you lose a property.” Real numbers can be ordered from smallest to largest, for instance, “whereas in the complex plane there’s no such concept.” Next, quaternions lose commutativity; for them, a × b doesn’t equal b × a. This makes sense, since multiplying higher-dimensional numbers involves rotation, and when you switch the order of rotations in more than two dimensions you end up in a different place. Much more bizarrely, the octonions are nonassociative, meaning (a × b) × c doesn’t equal a × (b × c). “Nonassociative things are strongly disliked by mathematicians,” said John Baez, a mathematical physicist at the University of California, Riverside, and a leading expert on the octonions. “Because while it’s very easy to imagine noncommutative situations — putting on shoes then socks is different from socks then shoes — it’s very difficult to think of a nonassociative situation.” If, instead of putting on socks then shoes, you first put your socks into your shoes, technically you should still then be able to put your feet into both and get the same result. “The parentheses feel artificial.”

The octonions’ seemingly unphysical nonassociativity has crippled many physicists’ efforts to exploit them, but Baez explained that their peculiar math has also always been their chief allure. Nature, with its four forces batting around a few dozen particles and anti-particles, is itself peculiar. The Standard Model is “quirky and idiosyncratic,” he said.

In the Standard Model, elementary particles are manifestations of three “symmetry groups” — essentially, ways of interchanging subsets of the particles that leave the equations unchanged. These three symmetry groups, SU(3), SU(2) and U(1), correspond to the strong, weak and electromagnetic forces, respectively, and they “act” on six types of quarks, two types of leptons, plus their anti-particles, with each type of particle coming in three copies, or “generations,” that are identical except for their masses. (The fourth fundamental force, gravity, is described separately, and incompatibly, by Einstein’s general theory of relativity, which casts it as curves in the geometry of space-time.)

Sets of particles manifest the symmetries of the Standard Model in the same way that four corners of a square must exist in order to realize a symmetry of 90-degree rotations. The question is, why this symmetry group — SU(3) × SU(2) × U(1)? And why this particular particle representation, with the observed particles’ funny assortment of charges, curious handedness and three-generation redundancy? The conventional attitude toward such questions has been to treat the Standard Model as a broken piece of some more complete theoretical structure. But a competing tendency is to try to use the octonions and “get the weirdness from the laws of logic somehow,” Baez said.

Furey began seriously pursuing this possibility in grad school, when she learned that quaternions capture the way particles translate and rotate in 4-D space-time. She wondered about particles’ internal properties, like their charge. “I realized that the eight degrees of freedom of the octonions could correspond to one generation of particles: one neutrino, one electron, three up quarks and three down quarks,” she said — a bit of numerology that had raised eyebrows before. The coincidences have since proliferated. “If this research project were a murder mystery,” she said, “I would say that we are still in the process of collecting clues.”

The Dixon Algebra

To reconstruct particle physics, Furey uses the product of the four division algebras, R⊗C⊗H⊗O (R for reals, C for complex numbers, H for quaternions and O for octonions) — sometimes called the Dixon algebra, after Geoffrey Dixon, a physicist who first took this tack in the 1970s and ’80s before failing to get a faculty job and leaving the field. (Dixon forwarded me a passage from his memoirs: “What I had was an out-of-control intuition that these algebras were key to understanding particle physics, and I was willing to follow this intuition off a cliff if need be. Some might say I did.”)

Whereas Dixon and others proceeded by mixing the division algebras with extra mathematical machinery, Furey restricts herself; in her scheme, the algebras “act on themselves.” Combined as R⊗C⊗H⊗O, the four number systems form a 64-dimensional abstract space. Within this space, in Furey’s model, particles are mathematical “ideals”: elements of a subspace that, when multiplied by other elements, stay in that subspace, allowing particles to stay particles even as they move, rotate, interact and transform. The idea is that these mathematical ideals are the particles of nature, and they manifest the symmetries of R⊗C⊗H⊗O.

As Dixon knew, the algebra splits cleanly into two parts: C⊗H and C⊗O, the products of complex numbers with quaternions and octonions, respectively (real numbers are trivial). In Furey’s model, the symmetries associated with how particles move and rotate in space-time, together known as the Lorentz group, arise from the quaternionic C⊗H part of the algebra. The symmetry group SU(3) × SU(2) × U(1), associated with particles’ internal properties and mutual interactions via the strong, weak and electromagnetic forces, come from the octonionic part, C⊗O.

Günaydin and Gürsey, in their early work, already found SU(3) inside the octonions. Consider the base set of octonions, 1, e1, e2, e3, e4, e5, e6 and e7, which are unit distances in eight different orthogonal directions: They respect a group of symmetries called G2, which happens to be one of the rare “exceptional groups” that can’t be mathematically classified into other existing symmetry-group families. The octonions’ intimate connection to all the exceptional groups and other special mathematical objects has compounded the belief in their importance, convincing the eminent Fields medalist and Abel Prize–winning mathematician Michael Atiyah, for example, that the final theory of nature must be octonionic. “The real theory which we would like to get to,” he said in 2010, “should include gravity with all these theories in such a way that gravity is seen to be a consequence of the octonions and the exceptional groups.” He added, “It will be hard because we know the octonions are hard, but when you’ve found it, it should be a beautiful theory, and it should be unique.”

Holding e7 constant while transforming the other unit octonions reduces their symmetries to the group SU(3). Günaydin and Gürsey used this fact to build an octonionic model of the strong force acting on a single generation of quarks.

Furey has gone further. In her most recent published paper, which appeared in May in The European Physical Journal C, she consolidated several findings to construct the full Standard Model symmetry group, SU(3) × SU(2) × U(1), for a single generation of particles, with the math producing the correct array of electric charges and other attributes for an electron, neutrino, three up quarks, three down quarks and their anti-particles. The math also suggests a reason why electric charge is quantized in discrete units — essentially, because whole numbers are.

However, in that model’s way of arranging particles, it’s unclear how to naturally extend the model to cover the full three particle generations that exist in nature. But in another new paper that’s now circulating among experts and under review by Physical Letters B, Furey uses C⊗O to construct the Standard Model’s two unbroken symmetries, SU(3) and U(1). (In nature, SU(2) × U(1) is broken down into U(1) by the Higgs mechanism, a process that imbues particles with mass.) In this case, the symmetries act on all three particle generations and also allow for the existence of particles called sterile neutrinos — candidates for dark matter that physicists are actively searching for now. “The three-generation model only has SU(3) × U(1), so it’s more rudimentary,” Furey told me, pen poised at a whiteboard. “The question is, is there an obvious way to go from the one-generation picture to the three-generation picture? I think there is.”

This is the main question she’s after now. The mathematical physicists Michel Dubois-Violette, Ivan Todorov and Svetla Drenska are also trying to model the three particle generations using a structure that incorporates octonions called the exceptional Jordan algebra. After years of working solo, Furey is beginning to collaborate with researchers who take different approaches, but she prefers to stick with the product of the four division algebras, R⊗C⊗H⊗O, acting on itself. It’s complicated enough and provides flexibility in the many ways it can be chopped up. Furey’s goal is to find the model that, in hindsight, feels inevitable and that includes mass, the Higgs mechanism, gravity and space-time.

Already, there’s a sense of space-time in the math. She finds that all multiplicative chains of elements of R⊗C⊗H⊗O can be generated by 10 matrices called “generators.” Nine of the generators act like spatial dimensions, and the 10th, which has the opposite sign, behaves like time. String theory also predicts 10 space-time dimensions — and the octonions are involved there as well. Whether or how Furey’s work connects to string theory remains to be puzzled out.

So does her future. She’s looking for a faculty job now, but failing that, there’s always the ski slopes or the accordion. “Accordions are the octonions of the music world,” she said — “tragically misunderstood.” She added, “Even if I pursued that, I would always be working on this project.”

The Final Theory

Furey mostly demurred on my more philosophical questions about the relationship between physics and math, such as whether, deep down, they are one and the same. But she is taken with the mystery of why the property of division is so key. She also has a hunch, reflecting a common allergy to infinity, that R⊗C⊗H⊗O is actually an approximation that will be replaced, in the final theory, with another, related mathematical system that does not involve the infinite continuum of real numbers.

That’s just intuition talking. But with the Standard Model passing tests to staggering perfection, and no enlightening new particles materializing at the Large Hadron Collider in Europe, a new feeling is in the air, both unsettling and exciting, ushering a return to whiteboards and blackboards. There’s the burgeoning sense that “maybe we have not yet finished the process of fitting the current pieces together,” said Boyle, of the Perimeter Institute. He rates this possibility “more promising than many people realize,” and said it “deserves more attention than it is currently getting, so I am very glad that some people like Cohl are seriously pursuing it.”

Boyle hasn’t himself written about the Standard Model’s possible relationship to the octonions. But like so many others, he admits to hearing their siren song. “I share the hope,” he said, “and even the suspicion, that the octonions may end up playing a role, somehow, in fundamental physics, since they are very beautiful.”

Correction July 22, 2018: A previous version of the “Four Special Number Systems” graphic noted that e1, e2 and e3 are comparable to the quaternions’ i, j and k. In the representation of the Fano plane in the graphic, e1, e2 and e4 are comparable to the quaternions’ i, j and k.

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