Earth/matriX The Inverse FineStructure Constant, By Charles William Johnson Extract
In previous essays, I have been pointing out the existence of a range of fractal values between 1.36  1.38 that occur in different aspects and constants of spacetime, matterenergy. In this essay, I examine the relationships of three distinct constants within that range. Other constants pertain to the solar constant (1.367), the Boltzmann Constant (1.3806505), for example, but will not be treated in this essay, although they have been reviewed in previous works. In these studies of the constants, the units of measurement or ratios are not being compared, but only the fractal numerical values themselves. Observations regarding the comparative analysis of units of measurement and ratios would require a much more extensive essay than the present one. At one time, Sir Arthur Eddington proposed that the inverse finestructure constant was 136. Physicists today measure it experimentally at 137.03599911 to be exact, and theoretically seek to derive it through an equation of selected terms as will be discussed below. The ground state energy level of the electron in a Hydrogen atom is given generally as 13.6eV. In other words, it requires a 0.0000136 MeV to pull the electron from a Hydrogen atom. This is also known as the binding energy, since it requires that same amount of energy, it is reasoned, to hold the Hydrogen atom together. In a sense, then, the 13.6 eV energy is the binding/unbinding energy of the Hydrogen atom. The ratio between the boiling point of water and the freezing point of water on Earth is 1.366099213 as: 373.15 Kelvin divided by 273.15 Kelvin yields 1.366099213. The 1.366099213 fractal value may be rounded off to 1.3661 for all practical purposes. Given the fact that energy is added to frozen water in order to convert it to boiling water, it is not surprising to observe a coincidence in numerical values with the ionization energy of Hydrogen. Water consists of Hydrogen and Oxygen (H_{2}0). Hence, one would expect the numbers relating to the ionization of Hydrogen to be relational to the boiling/freezing points of water (Hydrogen and Oxygen). Thus, I find it logical to find a similar fractal value for the binding/unbinding energy of Hydrogen (1.36 fractal), and the thermodynamic temperature scale as of the ratio 1.3661 relating to the boiling/freezing points of water (Hydrogen_{2} plus Oxygen). It is generally stated that the principal reason that water stays together is precisely due to the Hydrogen bond between the oxygen and hydrogen atoms. Further, the hydrogen bonds in water are the main reason for the high freezing (or, melting) and boiling points of water. Take note then of the following values. The radius of 1Hydrogen is 1.2 Å and that of 6Oxygen is 1.4 Å. The length of the covalent bond between Oxygen and Hydrogen is 0.95 angstroms. Consider then:
Another option in the computation: 1.2 + 1.4 = 2.6 / 2 = 1.3 / 0.95 = 1.368421053. Note the reciprocal of this value: 1 / 1.368421053 = .73076923 (halves to .365384615). Note the sidereal count of Earth's orbital time in fractal expression: 1 / .365256 = 2.737805813 (halves to 1.368902906). Boiling water at 100 degrees Celsius needs 540 cal/g as heat of vaporization (multiples thereof 540, 270, 135...). Here is one datum that I found recently. In an article entitled, "Water and Ice", by Alan K. Super in the magazine Science, August 23, 2002, he states: "The glass transition temperature for water is in fact much lower, probably around 136K". Consider also, the Schaefer Point refers to the common value on the Centigrade and Fahrenheit scales: 40 °C = 40 °F. A similar point of coincident values appears on the Centigrade and Kelvin scales: 136.575 °C = 136.575 K. Sir Arthur Eddington, with an indecipherable reasoning behind his computations, proposed the use of a value of 136 for the reciprocal of the inverse finestructure constant (10^{2} + 6^{2} = 136). He reluctantly succumbed to pressure from his peers and adopted the theoretical 137 fractal number. This value today is computed experimentally to be 137.03599911. After examining the fractal values, the case may be that Eddington simply employed intuition to derive a number that may be relational to the inverse finestructure constant. Over time, various theoretical exercises have been pursued to establish the exactness of the 137c fractal value. Selected examples, supposedly based in physics and which are commonly cited in the literature concern the following examples: [The following values are cited in the book, The Constants of Nature by John D. Barrow, Pantheon, New York, 2003, 368 pages. A great read; highly recommended.] Other playful 137 numerology exercises are: In my studies of ancient reckoning numbers, I have toyed with the concept of fractional powers to whole numbers, as used in some of the previous examples shown here. Yet, in reality, as a spacetime event, as an event of matterenergy, it is impossible to multiply, say, 3 times itself 10/3 times or, 3 to the 3.33333333 power. The exponent is a shorthand algebraic notation. Of course, such a fractional expression can be carried out on electronic calculators as those being produced today. But, in reality, there is no spacetime event, no physical event of matter that would allow itself to undergo such a procedure. Even the numbers themselves, such as the number 3 in this example, will not allow themselves to function as such: 3 times itself 3.33333333 times. I can only marvel at how the electronic calculators are programmed to achieve 819^{1.36656} equals 9575.84811. The only term that may exist of the previous three expressions is that of 819 (as an 819 quantity of something), whereas the power 1.36656 and the product, 9575.84811 reflect pure magic in numbers. To put it succinctly: people will never hold in their hands 2^{1.36656} of something, nor multiply the number by itself 1.36656 times other than as effected on the small pocket calculators of today. And, so it goes with the previously cited examples regarding the 137c number. One may express algebraically a fractional exponent as in one of the previous examples, say, 1/ = 8 (8 ^{5} /15)^{1/3} = 137.348 [Lewis and Adams]. [In fact, on my calculator this equation derives 1367.309075.] But in terms of spacetime events, say, the term 15^{7/4} to use any term as an example of fractional exponents, does not reflect a spacetime (matterenergy) event. The number 15 may be multiplied in practicality by itself any whole number of times; in theoretical abstraction, however, 15 may be multiplied by itself any fractional number of times. However, the numbers obtained from the former may reflect the existence of the resulting number of matterenergy events; the latter are numbers resulting from the theoretical computations but do not represent or reflect actual spacetime, matterenergy events. 15 apples times 15 apples means 225 apples. While, according to my pocket electronic calculator the following obtains, given 17 / 4 = 4.25:
Either way, the numbers mean nothing because there are no fractional apples whose multiplication together would yield such a number, nor a fractional exponent that would yield such a fractional number in terms of spacetime events at least. Fractional exponents are a question of algebraic notation; they do not concern the behavior of matterenergy events. You may find a combination of numbers and powers that produce even the 1.370359991number (as illustrated in this essay), but that does not mean necessarily that that algebraic expression expresses anything. For example, the square of the elementary particle divided by the reduced Planck constant times the reciprocal of the speed of light in a vacuum equals 137.0359991, may be derived. But the question remains whether this equation reflects the actual events under consideration. Think about it, the reciprocal of the speed of light in a vacuum does not exist, just as the square of the speed of light in a vacuum does not exist in matterenergy. The speed of light in a vacuum is such a value as said to be a fixed limit to the speed of any matterenergy event in spacetime. Hence, the square of that limit is a purely theoretical construct, not a practical event. Nonetheless, within the list of physical and chemical constants, one finds the HertzInverse Meter Relationship to be expressed as fractal "3.335640951 e9 (exact) m^{1}". Again, this is a fractal value of the reciprocity of the speed of light in a vacuum: 1 / 3.335640951 = .299792458. And, given the exactness with which the constant for the speed of light in a vacuum is presented, so it goes with the particular constant cited here. Physicists look down upon the numerical meanderings of numerology in the study of matterenergy. Yet, as may be seen from the inverse finestructure constant below, it would appear as though the physicists themselves are not far from falling into numerology, numbers for the sake of numbers. To date, the various and changing expressions of the finestructure constant and its inverse expression cause doubt as to whether at some future point in time, physicists may ultimately adjust the 137.03599911 number in use today for a distinct value; maybe even one closer to Sir Arthur Eddington's number (136c). However, for some time now the search has been on to find the most precise fractional expression of the inverse finestructure constant. Physicists shy away from an expression of 137.036 for the supposed more exact measurement of 137.0599911 (through possibly 137.0599946). The point then to be made, in my mind, is as follows. The previously cited value of 13.6 eV for the ionization of neutral Hydrogen reflects a specific spacetime/movement event in matterenergy. The 1.3661 ratio of the boiling/freezing points of water reflects a specific ratio or proportion of spacetime/movement events in matterenergy. While, the finestructure constant and its inverse expression supposedly reflect a specific spacetime/movement event in matterenergy, the distance between an electron and a photon under certain circumstances. Yet, the algebraic formula that states the manner in which the 137.03599911 value is derived, in my view, confounds more than clarifies. And, I do not feel that this is a selfinflicted confusion, but rather one that derives from the redundancy of the terms cited in the equation. Let me illustrate the point. The inverse finestructure constant is symbolized as follows: This equation would read as, the square of the elementary particle is divided by the reduced Planck constant times the speed of light in a vacuum times four pi times the permittivity of free space. Let me place the corresponding values to each of the cited terms as follows: The result from the previously cited equation, then, is fractal 7.297352573, close to the value generally given today for the finestructure constant (7.297352568) [my pocket calculator has its limits]. Now, the previous formula as stated is but a shorthand version for the notation of some of its terms. In other words, the reduced Planck constant h bar, , actually represents the Planck constant times two pi, h/2pi, and the permittivity of free space actually represents the reciprocal of the speed of light in a vacuum squared times the permeability of vacuum, 1/c_{2} . The expression is the electric constant (8.8541878176), and the expression is the magnetic constant, which itself is four pi (12.566370614). Consider the longhand expression then of the previous equation with its symbolic notation filled in, i.e., without any abbreviation or substitution of its terms: The unabbreviated expression would then read as follows: the square of the elementary particle (e^{2}) is divided by the reduced Planck constant, which represents the Planck constant, in turn divided by two pi times the speed of light times four pi times the permittivity of free space which itself represents, one divided by the speed of light in a vacuum squared times the permeability of vacuum. Much of the discourse in mathematics and physics remains at the level of providing insight into the algebraic expressions and their notation, without ever actually presenting the numbers represented by the equations themselves. So, once again, let us fill in the numerical values relating to the constants cited in the equation in order to observe how they perform. Therefore, translate the previous algebraic notation into their fractal numerical expressions and the following obtains: One cannot help but notice the redundancy of the terms for pi and for the speed of light in a vacuum (12.566370614; given 2.99792458 times 2.99792458 = 8.987551787). And, if you tell me that they cancel out one another, then, the logical response is to question why have them in the equation in the first place, since they serve no computational purpose. Any term cancelled out in an expression is as though it did not exist, meaning that the notational expression requires rewriting in order to uncover the base relationship within the equation. Further, the initial equation (1) is not a more synthetic expression of the latter formula cited above (2), since even though the former contains fewer terms, its terms are based upon and, necessarily include, the expanded terms of the second equation. The redundant terms of this equation (c and pi) are hidden in the algebraic notation shown in the previous formula for the inverse finestructure constant (1) as becomes evident in the following indication. The terms c • 4pi times 1/c^{2} represent in fact c • 4pi times 1/c^{2} 4pi. And, with that, the divisor of the formula given for the inverse of the finestructure constant, states similar terms twice in a distinct but obviously redundant fashion. The distinction that c • 4pi differs from 1/c^{2} 4pi because of the reciprocity and squaring of c in the latter expression is irrelevant in nature, once the actual computation of the terms is carried through to their numerical values as will be shown below. Consider then, In this manner, one may observe how the four apparently
distinct terms actually produce the reciprocal
of the speed of light in a vacuum, since
Now, consider, the fractal numerical expression of these
terms as follows: And, if one prefers the use of the reduced Planck Constant, then, for the finestructure constant, 7.29735257, as shown in some computations for electrostatics of today, one has the finestructure constant as: In my mind, given the usage of the previous equation (3), the expression for the inverse finestructure constant, 1.3703599911, as shown here without the apparent redundancies better portrays the theoretical reciprocity of the finestructure constant. In summary, canceling out the redundant terms, the algebraic expression of the inverse finestructure constant would be: In this case, the reciprocal of the speed of light in a vacuum is employed as the complementary term in the divisor together with the reduced Planck constant. In the expression (3), the term 4 is taken as dimensionless constant 1. However, in summary, the expression c • 4pi times 1/c^{2} represents in fact c • 4pi times 1/c^{2} 4pi, the reciprocity of the speed of light in a vacuum. Within the divisor of the expression formula given for the inverse of the finestructure constant (2), one has redundantly stated similar terms only in a modified form: c • 4pi  times  1/ c^{2} 4pi The cancellation of redundant terms yields 1/c. The reduced expression for the inverse finestructure constant (4) obtains once the redundancy of terms is cancelled in the algebraic notation of the equation. As a material event, one may visualize the spacetime event represented in the 13.6 eV energy level required for pulling an electron from a Hydrogen atom. As another material event, it is also possible to visualize the 1.3661 value for the proportion of the boiling/freezing point of water. But, it remains beyond my comprehension how to visualize the algebraic expression of the finestructure constant (7.297352568) and its inverse constant (137.03599911) as expressed in the formulae generally cited in the literature of physics as given above in equations (1) and (2). There is little problem in comprehending the distance between an electron and a photon, so to speak; the question arises regarding the algebraic notation employed to express that material event. It seems beyond reason and logic to create a formula or equation that contains redundant terms, whose cancellation itself serves no purpose. In other words, instead of stating c • 4pi  times  1/ c^{2} 4pi, the purpose of comprehension may be better served by stating simply 1/c, since this is what is actually being affirmed by that cluttered expression. It appears more relevant to comprehend the inverse finestructure, as of the reciprocal of the speed of light in vacuum, then as of its supposed relationship (squared) to that of 4pi. Again, pi exists as of the relationship of a circle to its diameter. The concept of four pi is merely conceptual, given the fact that four pi could in fact pertain to four circles, each with its expression of pi, and so on.
The foregoing cannot be reduced to a mere discourse of numbers (i.e., studies in numerology). To employ redundant expressions in the equations suggests a certain degree of numerology, given the fact that terms/numbers appear in the equation that reflect no visible spacetime coordinate. So, the question always remains whether the fractals/numbers reflect in fact spacetime/motion events that exist in matterenergy. Given that the finestructure constant is not a mere statement of belief, but one of cognitive experimental measurement, one would expect its theoretical expression to exactly reflect relationships (of multiplication and division) that exist in reality, i.e., in spacetime/motion, in matterenergy. The precision sought in theoretically rendering the numerical value of the inverse finestructure constant as 137.0599911(46) becomes suspect, in my view, when one considers that the exactness being sought in its measurement is based upon redundant theoretical computations as illustrated in this essay. A goal of economy in the computations was foremost with the invention of algebraic notation in mathematics. However, I often find that some of the computations effected in algebraic notation today present excess and redundancy, and not an economy of terms. Table of MatterEnergy Events and Corresponding Fractal Values
The Reciprocal of 136 Fractal Further consider the reciprocal multiples of the 136c fractal value.
The reciprocal of 136 fractal, then, halves down to 1.83823529 fractal, which is suggestive of the neutronelectron mass ratio: 1838.6836598. Consider the fractal expression of the neutronelectron mass ratio, which is very near the 1.36 fractal mark:
Earth/matiX
