Review Article

A Review of Inconsistencies and Unfounded Assumptions in Physics Enables A Path Forward

Retired Scientist, Valerio St. Santa Barbara, California, USA

***Corresponding author: William Oakley**, Retired Scientist, Valerio St. Santa Barbara, California, USA, Tel: +8057709811, E-mail: oakleyw137@gmail.com

**Received:** November 16, 2020 **Accepted:** December 07, 2020 **Published:** December 18, 2020

**Citation:** Oakley W. A Review of Inconsistencies and Unfounded Assumptions in Physics Enables a Path Forward. *Int J Cosmol Astron Astrophys*. 2020; 2(1): 115-120. doi: 10.18689/ijcaa-1000124

**Copyright:** © 2020 The Author(s). This work is licensed under a Creative Commons Attribution 4.0 International License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

Abstract

It is widely recognized significant parts of leading-edge physics are at an impasse. Perhaps it is time to re-evaluate long-standing inconsistencies and assumptions that have become dogma but are erroneous and blocking progress. Newtonʼs gravitational constant G_{N} is assumed a natural constant, having originated via Newtonʼs notion of gravity as radial force acting on mass in flat observer space. But Einstein showed gravity due to curved space time with “mass” dimensionally c^{2} remote from the observer energy domain. Dirac stated (elementary) particles are “no more than electromagnetic energy localized in observer space”. This suggests gravity is emergent at the particle scale by spacetime curved in three dimensions. But Newtonʼs assumed radial force is consistent only with spacetime curvature in the two dimensions orthogonal to the radial, so how can G_{N} be fundamental? Do the different dimensionalities of Newtonʼs and Einsteinʼs theories relate to the Dark Matter issue?

Describing the electron as a photon in a relativistic quantum loop localized by curved spacetime enables derivation of an expression for G_{N} giving a value within the empirical uncertainty. The electron is posited as relativistic electromagnetic energy in dynamic equilibrium between circumferential metric tension at the Strong Force scale and radial electrostatic force, satisfying the Planck “Force Equality” premise. As historically long suspected G_{N} contains a numerical factor of c^{4}, derived from the cgs units, in which it was first measured, and a relativistic factor, α^{-4/3}, which move the Planck scale into exact correspondence with the electron parameters. General Relativity is shown a fundamental femto-scale theory where the strong force in a metric curved at the particle scale is manifest in observer space reduced by the classical “Large Number” of 5.7x10^{44} and is evident as gravity.

The expression obtained for G_{N} is supported by deriving the MOND constant and the observed flat galactic star rotation velocity curves.

Resolving identified erroneous assumptions and inconsistencies will significantly impact cosmology and particle physics and bring gravitational and electromagnetic unification closer.

**Keywords:** Electron; Dark Matter; Planck Mass; Newtonʼs G; Large Numbers; Quantum gravity; Proton mass anomaly; MOND.

Introduction

Progress in fundamental physics has slowed substantially in recent decades with new discoveries seeming increasingly minor and peripheral to fundamental issues. High energy physics is well funded and vigorously pursued, but shows little recent progress while a significant number of basic issues are routinely ignored, (e.g. how does the electron exhibit gravity? Why is the proton rest mass so much greater than the electronʼs? ). Why does physics drive to find more high energy “resonances” that do not address existing basic issues? Did finding the Higgs boson help to understand and compute the rest masses of stable particles, or extend the Standard Model to a new family of more massive particles? Or address the Large Number issue? No. Physics is facing a plethora of unresolved basic questions. Perhaps the lack of real progress stems from entrenched erroneous assumptions and ongoing failure to address and resolve conflicting theories.

Newtonʼs empirical constant G_{N}, arose with his 1687 gravitational equation [1], now outdated and long superseded by Einsteinʼs 1917 General Theory of Relativity, (GR) [2]. But GR is incomplete as it lacks a connection to both G_{N} and the atomic scale. Consequently, G_{N} remains useful but is theoretically unsupported so why is it still believed a fundamental constant? The Planck scale of matter [3] is conjectured to exist at a mass energy about 20 orders of magnitude greater than the elementary particles, but this factor depends on the value of G_{N}, an isolated and empirical construct, so it is also theoretically unsupported at a fundamental level. Cold Dark Matter, (CDM), is assumed to exist although decades of searching have produced no positive results, only myriad speculative articles, and it likely does not exist [4]. Does the CDM problem arise from using Newtonʼs radial force equation to calculate masses of orbital celestial bodies whereas Einsteinʼs General Relativity (GR), ascribes gravitational orbits to curved spacetime? GR has survived all tests and is now considered proven but is not connected to either G_{N} or particle physics. Consequently, as gravity originates at the particle scale GR must be incomplete. Logic dictates observer space gravity is a manifestation of forces acting at the particle scale which, per Dirac, localize electromagnetic (EM) energy and enable particle formation, e.g. the electron. This should be the focus of our attention, not the Large Hadron Collider (LHC), String Theory, Multiverse conjectures or similar efforts that do not address these and other basic issues, and which many still deem “intractable”.

Physicists are aware of these issues, but the standard community approach of incremental progress via peer reviewed journal articles is not well-suited to identify and correct outdated and /or contradictory notions and erroneous dogma. These problems are difficult, if not impossible to address in a strongly competitive peer pressure “publish or perish” environment, which has led physics into a speculative morass [5] (“No problem can be solved from the same level of consciousness that created it.”-Albert Einstein).

The Planck Scale relation assumes Newton's G_{N} Fundamental, But Is It?

The pace of discovery in High Energy Particle (HEP) physics has slowed to a crawl and all but stopped. This likely presages the end for HEP but not perhaps for particle physics in general. The LHC has produced essentially no results in its search for another generation of particles to fill the large gap, (the Hierarchy problem) [6], between those now known, e.g. the Higgs Boson [7] at 125 GeV^{a}, and the (conjectured) Planck Scale at 1.2 × 10^{19} GeV. Perhaps no particles exist in this huge range, or perhaps the Planck scale is in error and the Higgs boson is essentially the end of the line. Is that plausible? The presently assumed Planck mass scale is defined as where the fundamental forces are equal, (gravity, Electromagnetic, Strong Force), with the Planck Mass M_{p} obtained by equating Newtonʼs gravitational expression F_{g}=G_{N}Mm/r^{2}, [1] and the Strong force Fs=ħc/r^{2}, i.e. ħc/r^{2}=G_{N}M_{p}^{2}/r^{2}, giving

M_{p} = (ħc/G_{N})^{1/2} (1)

But a presumed (Newtonian) gravitational force in the observer domain and the Strong force within subatomic particles are in different spacetimes, so how can equating them be meaningful? The Planck scale is clearly problematic. However, the notion of force equality must be valid for elementary particle stability in femto-scale domains where observer gravity and G_{N} are essentially irrelevant.

It may be heresy but the answer to some outstanding issues will not be found at the high energy extreme but at the low energy scale of the electron. The electrostatic and strong forces are equal within the electron (classically e^{2}/r^{2} = αħc/r^{2}), which suggests a particle in dynamic equilibrium and rotationally relativistic by α, where α^{-1}e^{2}/r^{2} = ħc/r^{2}, and with the charge energy apparent to the observer reduced by the relativistic rotation factor α (the fine structure constant). Is it plausible this equality exists over the huge energy range from the electron to the Planck scale? No, so if the Planck scale is in error the problem lies with G_{N}, the least certain of the Planck relation parameters in eq. (1).

**The Origin of Newtonʼs G**

G_{N} arose with Newtonʼs gravity equation describing a radial gravitational force in the observer domain between two observer domain masses. It has long been replaced by Einsteinʼs General Relativity (GR), wherein gravity is described as acting via curved spacetime. GR is a macro scale theory and does not explain how gravity emerges at the particle scale, and so does not contain a scaling factor that provides a value for G_{N}. With no accepted way to quantify gravity via GR, Newtonʼs G_{N} remains part of empirical physics but is isolated and unsupported^{b} by theory. It is an outlying parameter unrelated to the atomic constants and in this context is suspect #1. GR shows the observer domain radial force described by Newtonʼs gravity equation does not exist. But if GR is essentially correct how can G_{N} be a natural constant as dogma insists? It is a prime candidate for revision.

**The large number problem**

Dirac introduced his Large Number Hypothesis (LNH), in 1937 relating the scale of the Universe to the mass of the proton, obtaining a nominal factor of 10^{39} [8-10]. The hypothesis retained G_{N} as a natural parameter but implied it was not constant and changed value with the age of the universe. Another classical large number is given by the ratio Strong Force (ħc/r^{2}), to classical gravity for the electron, G_{N}m_{e}^{2}/r^{2}, evidencing a Large Number LN, unrelated to the universe age [11].

LN = ħc/G_{N}m_{e}^{2} = 5.7084 × 10^{44}(2)

In contrast to Diracʼs LNH, as shown below, G_{N} is neither natural nor a Universal constant and its value, and LN, are highly dependent on the light velocity value c, in the units in which G_{N} was first measured.

A value for Newtonʼs G_{N} was first obtained by Cavendish in 1798 when cgs^{i} units were in vogue (with light velocity c=2.9979 × 10^{10} cm/sec), and it has often been noted the fourth power of the numerical value of c in those units, (__c__ say), is very large, with __c__^{4}=8.0773 × 10^{41}. This number differs from LN by a relatively small factor, about 706.7. As the Large Number expression eq (2) contains a value for G_{N} it is likewise theoretically unsupported at a basic level.

The electron is described [11] as a photon of free space energy ħc/r, wrapped α^{-1} times around the particle z axis to form a spacetime curvature of mass energy α^{-1}m_{e}c^{2}, and adopts a relativistic state where a volume expansion by α^{-1}, (≈ 137), reduces the circumferential propagating energy by α^{1/3} to α^{-2/3}m_{e}c^{2}. The expansion also reduces the radial charge energy in the observer domain by α to αħc/r=e^{2}/r with the apparent radial mass reduced to m_{e}. The total energy is thereby preserved at zero, m_{e}c^{2}-αħc/r=0. Particle stability in the relativistic rotating domain indicates α^{-1}m_{e}c^{2}-ħc/r=0, with the mass energy distributed in three dimensions. A radial toward the observer is normal to a circumferential strong force in spacetime curved in 2D and the circulating mass energy is thereby evident to the observer decreased by α^{-2/3}c^{2}, appearing as a radial mass effect. The implied gravitational attraction between two electrons thus differs only slightly from the classical Large Number in eq (2) and weaker than the strong force by

(α^{-2/3}c^{2})^{2} = 5.7071 × 10^{44} (3)

Dirac stated [8], (circa 1928), that “all matter is no more than localized electromagnetic (EM) energy”, now long since proven by low energy electron-positron annihilation which produces only EM photons, but EM energy only propagates rectilinearly at light speed in vacuo. So logically the electron must be EM energy localized by propagating rectilinearly in spacetime highly curved at the particle scale. And exhibiting mass due to propagation at a relativistic velocity close to c. Newtonʼs equation contains a gravitating mass term m^{2}, thus if m^{2}=706.7 as above, m=26.58, and the circulating relativistic mass energy in each electron of rest mass m_{e} is m ≈ 26.58 m_{e}c^{2}, with each spin half component 13.58 m_{e}c^{2} at 6.791 MeV. This is posited as a ** gravity quantum, (m_{q}c^{2} ≈ 6.791 MeV);** which in a quantum loop relativistic by α

^{-1/3}gives a loop energy of 35.01 MeV. Two spin

^{-½}electron loops each of 35.01 MeV form a circulating spin-1 photon of 70.02 MeV, evident to the observer reduced by α to 0.511 MeV, the electron rest mass energy.

**The Planck scale**

The notional Planck Mass scale [3], was introduced circa 1895. Updating the Planck mass value given in eq (1) where G=ħc/M_{p}^{2} with

G ≈ ħc/m_{e}^{2}(α^{-2/3}__c__^{2})^{2} (4)

shows the “Planck Mass” an energy α^{-2/3}m_{e}c^{2} ≈ 13.582 MeV, the relativistic photon energy propagating circumferentially within the electron. Consequently, there is no ‘large gap’ in particle energies and the ‘hierarchy problem’ no longer exists. The Planck force equality criteria is satisfied within the electron as observer domain gravity is just a manifestation of the circumferential Strong Force at the particle scale, and GR, Newtonʼs G_{N}, and electrodynamics are connected via the nominal scaling factor (α^{-2/3}__c__^{2})^{2}.

Due to not understanding the true nature of gravity, Newtonʼs G_{N} although useful, is neither fundamental nor natural. The gravitational effect between two electrons arises from the circumferential strong force reduced by a scaling factor (α^{-2/3}c^{2})^{2}, essentially the Large Number, providing a direct connection between the curved spacetime of GR (at the femto-scale), and the EM photon circulating within the electron.

Relation (4), G ≈ ħc/m_{e}^{2}(α^{-2/3}c^{2})^{2}, gives a numerical value for G just outside the empirical CODATA uncertainty of G_{N}. If the energies circulating in the electronʼs two quantum loops cross couple, a small mass adjustment factor^{ii} of 1.00013725 is obtained, giving the empirical value of LN, and a gravity quantum,

mqc^{2} = 6.792131227 MeV (5)

and a slightly revised expression for G_{N},

G_{N} = ħc/(2m_{q}c^{2})^{2} (6)

giving a numerical value within the CODATA empirical standard uncertainty at G_{N}=6.67384.± 0.00080.

G_{N} = 6.674273033 × 10^{-11} SI Units (7)

Does Dark Matter Exist?

Cosmological observations seem to show an unidentified source of mass pervades the Universe as the motion of stars orbiting in the outer regions of galaxies do not appear to follow Newtonian dynamics with the mass of orbiting matter too low by a factor of about 5.2 as computed from other observational data; i.e. the measured radii and velocities of stars orbiting in outer regions of galaxies, with expected masses estimated by observed star parameters. The notion of Cold Dark Matter (CDM) was invented to solve this “low observed mass” problem and the search for it has been ongoing for some time, almost a century, with absolutely no trace to be found, out in deep space, in deep underground mines, nor anywhere else. The lack of any physical evidence for a “dark matter” particle has caused some to wonder if it really exists [12], and if it does not what is the problem? An attempt to resolve the problem was made with the introduction of MOND theory, (Modified Newtonian Dynamics), but was not successful. The search continues (Charlie Wood, Quanta Magazine Nov. 27. 2019), but it is becoming clear the solution to the CDM issue will probably not involve a new particle.

The electron is described above as a single spin-1 photon localized in space as two orthogonal relativistic spin^{-½} quantum loops with the particle relativistic volume expanded by 1/α and each loop two dimensional and expanded by α^{-2/3}. The total particle mass energy in three dimensions is α^{-1}m_{e}c^{2} but the circumferential mass energy via which Newtonʼs G_{N} is derived is α^{-1/3} less at α^{-2/3}m_{e}c^{2}. The circulating relativistic energy is orthogonal to all particle radials and evident to the observer reduced by α^{-2/3}c^{2} to m_{e}. A similar factor applies to nucleons, and the mass of objects measured along a radial will thereby evidence a mass lower by α^{-1/3}, about 5.1560, compared to a total mass value derived via non-radial measurement. In contrast to Newtonian dynamics, General Relativity (GR) describes masses in gravitational orbits as propagating rectilinearly in curved spacetime, and not radially attracted. For objects in gravitational orbits this implies a total mass greater by α^{-1/3} than deduced using Newtonian dynamics, i.e., the observer perceives objects in unaccelerated gravitational orbits propagating as though centrally attracted by an effect of magnitude GMα^{-1/3}m/R^{2}, which does not exist.

It is concluded CDM does not exist and the problem arises from using Newtonʼs gravitational expression to calculate the mass of objects orbiting galaxies by propagating rectilinearly in curved spacetime.

Current values for the Universe composition give normal baryonic matter at 4.6%, Cold Dark Matter (CDM), at 24%, and Dark Energy (DE), at 71.4%. But if CDM does not exist and normal matter is low by 5.156, then the normal matter should be 23.72%. However, 23.7% and 71.4% only add to 95.1%, so both normal matter and DE values should be increased by 1/0.951=1.0515, giving DE=75.08% and Normal baryonic matter=24.92%.

The Proton Anomaly

How does the Proton mass energy at 938.272 MeV relate to the previously described electron mass energy configuration? The volume of both the electron and proton and their charge states are determined by each particleʼs relativistic state, an expansion by α^{-1} for the proton and a contraction by α for the proton. The observed mass of each particle is determined by the spacetime curvature that localizes its energy. With their charges equal, and the same value of G_{N} applicable to both particles, a similar energy configuration must exist for both. As above the electron consists of two spin^{-½} components each of 6.791 MeV, the posited unit of quantum gravity, and α^{-1} 6.7921 MeV = 930.76 MeV, close to the CODATA proton rest mass of 938.272 MeV. This suggests the proton [13] is a single spin^{-½} quantum in a highly relativistic state, with a volume contracted by α^{-1} ≈ 137 while the electron volume is expanded by 137. The opposite and equal volume changes generate equal but opposite charge values. Consistent with current theory all but 0.724% of the proton mass is relativistic.

The empirical gravitational constant G_{N} is obtained via normal matter composed mostly of protons and neutrons with the same gravitational quanta existing within all particles. If the 6.791 MeV noted above is a gravity quantum it should relate to the proton. A particle volume change by α suggests a relativistic single quantum component with energy distributed nominally as mqc^{2} (α^{-2/3}.α^{-2/3}.α^{1/3}) 6.792 MeV. The fractional power terms presumably relate to the fractional charges assigned to quarks, but these would only be evident in the near field of protons and obviously not separable. Including derived cross coupling factors gives a proton rest mass^{iii} in full agreement with the CODATA value.

The electron volume expansion as described shows a particle in dynamic equilibrium between its mass and charge energies, m_{e}c^{2}=αħc/r=e^{2}/r. But this is not true of the proton as the apparent mass is greater than the circulating energy necessary for dynamic equilibrium. A possible solution to this problem exists if the proton energy propagates *inside* a closed to roidal event horizon and is therefore not in observer space, although located within it, with the circumferential energy *curvature reversed* and its relativistic state thereby appearing inverted on passing through the event horizon. In short, the greater mass (and proton circumferential curvature) due to an apparent volume reduction of α is due to a volume expansion of α^{-1} inside its event horizon.

Understanding the MOND Constant

Support for the posited expression for G_{N} is obtained via the MOND constant at 1.24 ± 0.14 × 10^{-10} m/s^{2}, [14,15]. The observed flat rotation curves for stars orbiting in the outer region of galaxies are also obtained consistent with the proton being a single quantum loop.

Erroneously believing gravity radial force in the observer domain historically resulted in the gravitational attraction of a masses M and m, (F_{g}=G_{N}Mm/R^{2}), being equated with a centripetal force (F=mv^{2}/R), on a mass m orbiting at velocity v, giving an invalid equality for an orbiting celestial body. With the advent of the GR it is now known stellar objects orbiting galaxies propagate rectilinearly and un-accelerated in curved space-time, and the assumed force equality is incorrect.

With G_{N}=ħc/(2m_{q}__c__^{2})^{2} differing from the classical dimensions of G_{N} by c^{-4}. To obtain an equivalent expression the invalid equality requires a dimensional adjustment; by dividing mv^{2}/R by __c__^{4} giving

G_{N}Mm/R^{2} ≈ mv^{2}/R__c__^{4} (8)

For rotating mass systems classically constrained by a force, but not gravity, the centripetal acceleration is v^{2}/R. As above, this does not apply to gravitationally constrained systems where the orbiting mass is not radially accelerated. But an uninformed observer might unknowingly measure the apparent acceleration as in (8) i.e. v^{2}/R__c__^{4}.

Orbital propagation of matter in curved space-time occurs not only in cosmological systems but also at a particle scale as described herein for both the electron and proton as electromagnetic (EM) energy localized by rectilinear propagation at a relativistic velocity in highly curved space-time of closed geometry at the femtometer scale. For quantum energy circulating within the proton a propagation velocity v=c(1-α^{2/3})^{1/2} at a posited orbit radius of r_{p}=0.8629 femtometers (fm) [16-19]. With these parameters, although the circulating energy is not radially accelerated, a numerical value for the apparent classical acceleration v^{2}/R__c__^{4}, can be calculated,

c^{2}(1-α^{2/3})/r_{p}__c__^{4} = 1.2408 × 10^{-10} (9)

This compares to the MOND constant as given above.

For particle stability the localizing effect maintaining the EM energy at the proton radius must have a quantum efficiency of unity, diminishing with increasing radii as 1/r^{2}. This attractive effect acts at the strong force scale within the particle rotating frame and as with the electron and proton is reduced to a gravitational effect in the observer domain.

**Flat rotation orbital stelar velocity curves**

For a large body containing N protons the local gravitational attraction is greater by N and decreases with radial distance from the body as 1/R^{2}. The effective quantum efficiency of the gravitational field will remain unity only out to a radius of R=N^{1/2}r_{p}. For example, with N=10^{30}, (a mass of 1,674 kg), at r=10^{15}r_{p}, (about 0.86m), the gravitational field of the body will have decreased by 10^{30} and the aggregate interaction quantum efficiency with other matter will have declined to unity, the same as at the proton radius. Beyond this *critical radius* the gravitating mass has insufficient gravitational field quanta to maintain the 1/R^{2} decline and a field transition will occur.

At the transition radius the classically apparent angular acceleration will be as in eq (9), the same value as empirically determined for the MOND constant, where the rotational velocity curves of stars diverge from decreasing as 1/R^{2} and become flat.

The above describes the proton as a single relativistic quantum loop, which must rotate about a tangent to tracing out a toroidal envelope. The toroidal relativistic energy configuration evident in the observer domain is posited above as mqc^{2} (α^{-2/3}.α^{-2/3}.α^{1/3}), but the single loop is essentially planar and thereby the relativistic strain which forms the gravitational field is essentially one dimensional, linear and parallel to the tangent about which the energy rotates. This strain decreases as 1/R for each particle and in conjunction with similar strains from a multitude of randomly oriented protons as in a macroscopic body causes the gravitational field to decrease as 1/R^{2}, until the transition field level is reached, after which the field decreases as 1/R.

At radii beyond the transition level the gravitational interaction as in (8), with G_{N}=ħc/(mqc^{2})^{2}, becomes,

[ħc/(mq__c__^{2})^{2}]Mm/R = mv^{2}/R__c__^{4} (10)

Which reduces to an expression independent of R and m, i.e. [ħc/(mq__c__^{2})^{2}]Mw=v^{2}/__c__^{4}, and re-organized shows a flat orbital velocity at all distances beyond the field transition radius.

v = [ħc/m_{q}^{2}M]^{1/2} (11)

The gravitational field change is not limited to orbital systems and the gravitational attraction should change, from decreasing as 1/R^{2} to decreasing as 1/R, for static masses of any scale.

Conclusion

Several inconsistencies and erroneous assumptions are resolved enabling progress in both particle and astrophysics. Logic indicates Newtonʼs gravity expression is fundamentally invalid with a value for G_{N} deduced based on the electron as a single photon localized by rectilinear relativistic propagation in highly curved spacetime. The derived Large Number gives a direct connection between electromagnetics and General Relativity, now expanded to include the particle scale. The Planck force equality conjecture relates to the stability of elementary particles. A derived gravitational quantum energy based on the electron enables a proton rest mass energy determination within the CODATA uncertainty. The Dark Matter issue is addressed by a conjecture without requiring new particles or forces.

These realizations may enable the resumption of significant progress in Physics.

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^{a}Standard abbreviations are used for all quantities (e.g. GeV, MeV, cgs, G_{N}), and constants, (e.g. m_{e}, m_{p}, c, α, ħ, etc.)- i cgs is the abbreviation for cm.gm.s. units
^{ii}A postulated energy cross axis coupling factor within the electron is given by: 1+ α^{5/3}/2 - (α^{5/3}/2)^{2}+(α^{5/3}/2)^{3}- (α^{5/3}/2)^{4}+ … = 1.0001372522^{iii}A derived energy cross axis coupling factor for the proton gives the calculated proton mass energy:

m_{p}c^{2}=α^{-1}m_{q}c^{2}(1-α)^{-1}(1+α^{4/3}/2)(1-α^{10/3}/4) = 938.2720882 MeV, within the CODATA Standard Uncertainty.

The proton energy forms a helical toroid evident in observer space distributed nominally as mqc^{2}(α^{-2/3}.α^{-2/3}.α^{1/3}). The circumferential energy m_{q}c^{2}α^{-2/3}couples into the z axis by α at m_{q}c^{2}α^{1/3}with a π/2 phase shift which then couples back to the circumference by α/2 with another π/2 phase shift to give the first term α^{4/3}/2. This again couples to the z axis and back to the circumference reduced by α^{2}/2 to give the second term α^{4/3}/2 x α^{2}/2 = α^{10/3}/4. The initial coupling reduces the circulation by α which due to curvature inversion at the event horizon is evident as (1-α)^{-1}.