




































DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

17 

Article 
 

Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 
 

Alex Vary
*
  

 

Abstract 
We examine the uncanny involvement and influence of mathematical truths on the minutest and 

largest properties and phenomena of the physical world and the remarkable effectiveness of 

mathematics in describing and predicting natural phenomena. Indeed, mathematics - a vast and 

ingenious conceptual structure without empirical content - is an indispensable and powerful 

theoretical instrument for the scientific understanding of virtually every aspect of the physical 

world. Selected examples show the remarkable associations among specific mathematical objects 

and macroscopic and quantum matter and phenomena.  

 

Keywords: Mathematical object, Euler's identity Fibonacci sequence, golden ratio, wave-particle, 

duality, heavy electrons, Higgs boson. 

 

 

Introduction 
 

Space and time have been assigned aspects of empirical reality by geometers who invented the 

language and algebra of dimensionality. Prior to that, space and time were indifferently perceived 

as amorphous realities, devoid of metrics. Initially a tabulae rasae, with metrics, space and time 

became mathematical objects, e.g., geometric manifolds with measurable attributes: shapes, 

distances, topology, intervals. Euclid and other ancient geometers gave spatial dimensions 

axiomatic meaning by positing mathematical objects such as lines, triangles, circles, spheres, 

cubes and other regular and irregular geometric solids. Descartes recognized relations among 

geometric points and temporal instances, giving them meaning by means of algebraical 

coordinates and equations. This was followed by the notion of multi-dimensional spaces. Then, 

theoretical physicists elaborated on the geometric details by imbuing space and time with material 

meanings and properties. Accordingly, synthetical spaces ostensibly produce quantum particles, 

quantum waves and force fields that interact energetically, stochastically, and periodically in 

synthetical time. 

 

Euclidian geometric space and various non-Euclidian abstract spaces of Gauss, Lobachevsky, 

Bolyai, and Riemann maintained the notion of three ‘obvious’ spatial dimensions. Then, along 

came the notion of four-dimensional 'spacetime' - the union of the three dimensions of space with 

the single dimension of time to create a combined entity. The ‘deformation’ of synthetical 

spacetime ostensibly explains gravitation. The notion of spacetime was introduced in the twentieth 

century by Hermann Minkowski and elaborated upon by Albert Einstein in his general theory of 

relativity. Current theoretical concepts of spacetime are not restricted to just four dimensions. In an 

attempt to explain quantum particles and waves, ‘string’ theory posits a ten-dimensional 

hyper-spacetime. ‘M-theory’, which is an elaboration of string theory, posits eleven-dimensional 

                                                 
* Correspondence: Alex Vary, PhD, Retired NASA Scientist & Independent Researcher. Email: axelvary@wowway.com  

mailto:axelvary@wowway.com


DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

18 

hyper-spacetime and mathematical objects that reside in it. 

 

Calabi-Yau manifolds constitute an interesting class of synthetical geometric spaces, that is, 

mathematical objects which Shing-Tung Yau showed to be possible upon proving the Calabi 

conjecture [1]. These spaces or shapes are based on complex space-time coordinates which 

bifurcate into even numbers of ‘real’ and ‘complex’ dimensions. The six-dimensional case is of 

special interest to string theory, where it serves as a candidate for the geometry of the theory's six 

hidden, or extra 'compactified' dimensions. They are presumed to be compactified because they 

are not observed ­ they are infinitesimal in relation to the metrics of three dimensional space. This 

compactification notion is really an unnecessary ploy. After all, if we can assign four pseudo 

dimensions to spacetime, then we can keep adding more dimensions as needed to satisfy, perhaps 

never quench, the thirst analytical geometers and theoreticians have for even more 

multidimensional spaces. 

 

Geometric compactification - the 'rolling up of a space' so that it is minute yet definable - is 

considered necessary for a viable string theory. In string theory different ways of compactifying, 

the extra dimensions lead to the notion that their modulations comprise elementary ‘physical 

objects’ such as electrons and photons. In this sense, synthetical spacetime ‘manifolds’ are 

considered to be able to manifest as physical objects. Various ‘vibrational modes’ of these 

spacetime manifolds have been taken as being the origins and constituents of quantum particles, 

fields and forces that pervade the cosmos. Thus, spacetime origami has emerged as a tool to 

fold-forge quantum particles. 

  

Shin-Tung Yau in The Shape of Inner Space holds that the study of Calabi-Yau manifolds has 

provided a promising laboratory for thought experiments - a laboratory that can inform the 

physics of string theory and also cosmology. It is a testament to the agility of the human mind 

that we began thinking about Calabi-Yau's manifolds strictly as objects, albeit mathematical 

objects, before there was any obvious role for them in physics. Yau writes, “We're not forcing 

Calabi-Yau's on nature, but nature seems to be forcing them upon us.” The study of these 

compactified multi-dimensional manifolds has enabled both physicists and mathematicians to 

learn many interesting and unexpected things about the likely nature of elementary particles. 

Although Calabi-Yau spaces may not be the ultimate destination, they may well be important 

stepping-stones to the next level of understanding. Yau’s comments echo what Eugene Wigner 

called "The unreasonable effectiveness of mathematics in the natural sciences." Yau and Wigner 

marvel that laws of physics closely complement the mathematician's penchant for what is 

‘elegant and beautiful’. At the same time, they grapple with the deep mystery of why this should 

be the case.  

 

 

Mathematical Beauty & Truth 
 

Euler's identity is often cited as an example of deep mathematical beauty. It is also a precise 

statement of mathematical truth which links three basic arithmetic operations: addition, 

multiplication, and exponentiation and also links five fundamental mathematical constants: 

 

The number 0, the null identity, 



DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

19 

The number 1, the unit identity, 

The number π, which is ubiquitous in the geometry of Euclidean space, 

The number e, the base of natural logarithms which occurs widely in mathematical analysis, 

The number i, the imaginary unit of the complex field of numbers. 

Both π and e are transcendental numbers. 

 

Euler's identity (named after the Swiss mathematician Leonhard Euler) is the equality 

 

e
iπ

 + 1 = 0 
 

 e is Euler's number, the base of natural logarithms: 2.718281828 . . . 

 i is the imaginary unit, which satisfies i 
2
 = -1, and 

 π is the ratio of the circumference of a circle to its diameter: 3.14159265 . . .  

 

Euler's identity is a special case from complex analysis, which states that for any real number x, 

 

e
ix

 = cos x + i sin x 
 

where the inputs of the trigonometric functions sine and cosine are given in radians. When x = π 

radians, or one half-turn (180) around a circle: 

 

e
iπ

 = cos π + i sin π 
 

Since, cos π = -1 and sin π = 0 it follows that e
iπ

= - 1 + 0i which yields Euler's identity: e
iπ

 + 1 = 0. 

 

It should not be surprising that Euler's identity precisely describes, seemingly unrelated physical 

phenomena at macroscopic, microscopic, and quantum levels. Figure 1 illustrates how the Euler's 

identity is related to the -180
o
 flip of a playing card, which also corresponds to the act of turning a 

page, opening a book, a stenographer’s tablet, or a laptop computer.  

 

At the quantum level, Euler's identity describes the behavior of entangled quantum particles. 

Measurements of physical properties, such as spin, performed on entangled particles are found to 

be correlated by Euler’s identity. For example, if a pair of particles is simultaneously generated in 

such a way that their total spin is zero, and one particle has a spin-vector ‘up’, then the spin-vector 

of the other particle is ‘down’, or a -180
o
 flip measured on the same coordinates axes. The 

entanglement paradox - although described by Euler’s identity - is unexplained. It appears that one 

particle of an entangled pair ‘knows’ the spin measured on the other, even though there is no 

known means for such information to be communicated between the particles, which at the time of 

measurement may be separated by arbitrarily large distances [2]. 



DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

20 

 
 

 

 

Fibonacci Sequence & Golden Ratio 
 

Fibonacci numbers appear unexpectedly and often in mathematics, so that there is an entire journal 

dedicated to their study. Applications of Fibonacci numbers include computer algorithms such as 

the Fibonacci search technique and the Fibonacci heap data structure. Fibonacci numbers also 

appear in biological settings such as branching in trees, the arrangement of leaves on a stem, the 

fruit sprouts of a pineapple, the arrangement of a pine cone's bracts, and prominently in sunflower 

seed patterns. The incremental number of petals on flowers often follows the Fibonacci sequence . 

. . 3, 5, 8, etc. - so that four-leaf clovers are extremely rare. Ratios of successive pairs of numbers in 

the Fibonacci sequence converge to the ‘golden ratio’ which appears in logarithmic spiral patterns 

in nature, including the spiral arrangement of leaves and other plant parts, snail and nautilus shells, 

and the cochlea of the inner ear. The ancient Greeks and modern architects and artists have felt 

compelled to apply the golden ratio in their structures and works to achieve elegance and beauty. 

 

The Fibonacci numbers or Fibonacci sequence are the numbers in the following integer sequence: 

 

1, 1, 2, 3, 5, 8, 13, 21, 34, 55, 89, 144, . . . 
 

or the alternative sequence: 

 

0, 1, 1, 2, 3, 5, 8, 13, 21, 34, 55, 89, 144, . . . 

 

By definition, the first two numbers in the Fibonacci sequence are either 1 and 1, or 0 and 1, 

depending on the chosen starting point of the sequence, and each subsequent number is the sum of 



DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

21 

the previous two 

 

The Fibonacci spiral - an approximation of the golden spiral - is a logarithmic spiral whose growth 

factor is φ, the golden ratio. That is, a golden spiral gets wider (or further from its origin) by a 

factor of φ for every quarter turn it makes. Expressed algebraically, for two quantities (a) and (b) 

with (a) > (b) > 0,  

 

If (a + b)(a) = (a)(b), then, by definition (a)(b) = φ = (1+5)(2) = 1.618033988 . . . 

 

Simplification and substitution of (b)(a) = 1φ yields the relation: φ
2
 = φ + 1 = 2.618033988 . . . 

 

The sequence of the ratios of successive pairs of Fibonacci numbers Fn+1Fn converges to φ. 

Similarly, the sequence of the ratios of the sums of the first n Fibonacci numbers Fn Fn 

converges to φ
2
. The latter relationship is illustrated in Figure 2 and is ostensibly significant in 

delimiting the size of sunflowers, daisies, and other plants and perhaps even ‘arms’ of spiral 

galaxies.  

 

 
 

The seed number increments of a sunflower follow the Fibonacci sequence as they fill the outside 

space away from the center. During the process, sunflower seeds form spiraling patterns. In some 

cases, the seed heads are so tightly packed that total number can get quite high - as many as 144 or 

a higher Fibonacci number. The total number of seeds tends to match a Fibonacci number. But, 

since the Fibonacci sequence never ends, what limits the total number of seeds in a sunflower? 

Why are there no sunflowers as big as dinner plates or tractor wheels? The obvious answer is that 

plant physiology controls growth factors which limit the diameter and size peculiar to sunflowers, 

daisies, and other flora - allowing the best exposure to sunlight and other factors. Yet, we observe 

from the curve in Figure 2 that beyond approximately Fibonacci number 144 the golden ratio φ
2
 is 



DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

22 

very quickly reached. We cautiously infer that the sunflower seed pattern spiral shape and size are 

governed and limited by the golden ratio φ
2
 = φ + 1 = 2.618033988. 

 

The ‘arms’ of spiral galaxies tend to follow the Fibonacci pattern and golden ratio. The Milky Way 

and neighboring Andromeda galaxy have several spiral arms, each of them a logarithmic spiral. 

Like sunflowers, spiral galaxies appear to conform to size limitations which may be attributed to a 

range in mass content consistent with the golden ratio. Factors governing spiral galaxy size range 

apparently include so-called dark matter and dark energy and also the ‘winding’ constraints that 

typify the shape and extent of the spiral arms.  

 

 

Wave-Particle Duality Myth 
 

In the double-slit experiment light passing through two precisely cut parallel slits in a thin opaque 

plate is collected on a photo-sensitive detector screen. After the photons pass through the slits, the 

image produced on the detector screen consists of fringes, an interference pattern, with light and 

dark regions corresponding to where light waves have constructively and destructively interfered, 

Figure 3. 

 

 

 
 

The interference pattern is taken as evidence of wave-particle duality, as inferred from the 

application of wave-function calculations. When photons or other quantum ‘particles’ pass 

through the double slit, a calculation which assumes that the photons behave as waves is needed - 

to predict the interference pattern. When the fringe pattern is examined, it is evident that the 

pattern was built piecemeal - quantum by quantum - not by continuous wave fronts - forming 

fringes composed of a patterned accumulation of random spots. 

 

During transit, each photon, from the source to detector screen through one or the other double slit 

evolves, according to the Schrödinger wave-function, and spreads out in space as an assumed 

wave front. But the actual measurement on the detector screen finds each photon deposited as a 

quantum parcel at a particular spot on the detector surface. This is unanticipated by the 

wave-function - it is called wave-function collapse. This is explained by assuming wave-particle 

duality, that is, photons in transit are waves which become particles as they impinge the detector 



DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

23 

screen. It is better to admit that photons are photons and to avoid describing photons as either 

waves or particles.  

  

Interfering cylindrical wave fronts are mathematical objects which are assumed to describe 

photons in transit because they effectively predict the probable fringe pattern of illumination and 

photo-excitation of actual particles that comprise the detector screen photo-sensitive granules. The 

mystery still remains in that the pattern is built piecemeal - quantum by quantum - not by the 

diffuse spreading of continuous wave fronts.  

 

An alternative way to describe the transit of photons - or other quantum ‘particles’ - is based on a 

Louis de Broglie concept adopted and developed by David Bohm. He postulated that photons 

travel through both slits, but that each photon has a well-defined trajectory and passes through 

exactly one of the slits. According to Bohm, photon interactions govern the trajectory of each 

photon instant by instant. This implies a definable mathematical and empirical ‘configuration 

space’ which guides the photons to their destinations [3]. The de Broglie - Bohm ‘pilot-wave’ 

theory attempts to explain the behavior of photons without reference to wave-particle duality - the 

associated particle is superfluous since pure wave theory is deemed sufficient. 

 

 

 

Super-Heavy Cubic Electrons 
 

In 1936, Einstein expressed the counter-intuitive notion that “perhaps we must give up, by 

principle, the spacetime continuum.” Current quantum gravity models assume that spacetime is 

discontinuous and particulate - that spacetime is a fractal substance and that the granularity of 

spacetime is on the scale of Planck length (10
-33

 centimeter) and Planck interval (10
-43

 second) [4]. 

In agreement, we postulate that spacetime consists of energetic ‘four-dimensional’ parcels - 

dynamic mathematical objects which consist of cubical volumes (voxels) of space that oscillate in 

time - and that spacetime is a deformable substance consisting of tightly tesselated voxels. This 

corresponds to Einstein’s concept of a deformable spacetime, that is, a substantive material-like 

spacetime. The tensor calculus of his general theory of relativity demanded it. According to the 

theory, gravitational deformation of spacetime adjacent to the sun is analogous to the deformation 

of a trampoline surface by a heavy bowling ball tossed upon it. 

 

Modified spacetime voxels (cubic spacetime units) are also proposed as fundamental building 

blocks of subatomic quantum parcels such as neutrinos, electrons, positrons. It will be seen that 

this leads to the prediction of heavy electron masses which agree with and surpass the Standard 

Model of Particle Physics. 

 

Dimensional analysis of the equation, E = mc
2
 indicates a profound relation between the ratio 

(E/m) and the space/time ratio [L/T]
2
. The explicit meaning of the equation is that nuclear binding 

energies and mass defects are related - that matter (mass) and energy are interchangeable and 

complementary. The implicit meaning of E = mc
2
 is that energy and mass are essentially 

properties of space and time, that is, space-displacement [ΔL]
2
 and time-interval [ΔT]

2
. We 

postulate that select spacetime parcels (voxels) have energy and mass and contribute energy and 

mass - when combined as components of sub-atomic quantum parcels. This idea is applied in an 



DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

24 

abstract cubic representation of electrons according to the following thought experiment which 

models electrons as cubelike mathematical objects [5].  

 

The basic electron, as depicted in Figure 4, is essentially naked and may enjoy only a transitory 

existence. The naked electron is represented by the intersection of three mutually orthogonal 

strings and branes which carry mass, spin, and charge (a borrowing from string and M-theory). 

These properties are purely energetic potentialities and at this stage are undefined as physically 

measurable properties. According to our cubic electron model, after the naked electron is cloaked 

with a cubic spacetime voxel, its electric charge, spin, and mass appear as measurable properties. 

It then becomes a Generation 1 electron with measurable mass of 0.511 MeV and also conforms 

with Standard Model electric charge (-1) and spin (½) properties.  

 

 
 

A Generation 2 electron consists of 8 Generation 1 modules and 2
3
  0.511 = 4.088 MeV.  

A Generation 3 electron consists of 27 Generation 1 modules and 3
3 
 0.511 = 13.797 MeV. 

The charge (-1) and spin (½) remain the same for all generations of heavy electrons. 

 

We use the Generation 3 cubic electron module for generating super heavy electrons (Figure 4). 

A Generation 4 electron consists of 8 Generation 3 modules and 2
3 
 13.797 = 110.4 MeV. 

A Generation 5 electron consists of 27 Generation 3 modules and 3
3
  13.797 = 372.5 MeV. 

A Generation 6 electron consists of 64 Generation 3 modules and 4
3
  13.797 = 883.0 MeV.  

A Generation 7 electron consists of 125 Generation 3 modules and 5
3
  13.797 = 1724 MeV.  

 

Fermat’s Last Theorem seems to govern the formation of cubic electrons. For example, a 

Generation 4 and a Generation 5 cubic electron cannot be added together to form a more massive 

cubic electron - because, according to the theorem, the sums of cubes of successive integers are not 

closed under addition. Fermat’s Last Theorem states that for n > 2 no integers A, B, C, n can be 



DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

25 

found such that A
n
 + B

n
 = C

n
. 

 

The cubic electron model not only predicts the muon and tau (tauon) masses but shows seven 

generations (with more possible) where the Standard Model projects only two generations of 

heavy electrons. The slight discrepancies between the Standard Model and cubic heavy electron 

mass predictions may be due to measurement anomalies with these highly transient particles. The 

Standard Model holds that there are three generations of electrons: The first generation being the 

basic electron itself, while the second generation is the heavier muon, and the third, the even 

heavier tauon. All three possess the same charge (-1) and spin (½) as an electron but differ greatly 

in mass.  

 

Muons were discovered by Carl D. Anderson and Seth Neddermeyer at Caltech in 1936, while 

studying cosmic radiation. The muon is a theoretically predicted heavy electron with a mass of 

105.7 MeV. The tau was detected in a series of experiments between 1974 and 1977 by Martin 

Lewis Perl with his colleagues at the SLAC National Accelerator Laboratory and the Lawrence 

Berkeley Laboratory group. The tauon mass is adduced as 1777 MeV. In their free state, these 

heavy electrons decay almost instantly. 

 

Some types of heavy electrons are found within a number of lanthanide and actinide compounds, 

where they exhibit a large effective mass, comparable to the mass of a muon. Heavy electron 

mass may reach 1,000 MeV in exotic ‘heavy fermion’ materials. A microscope that was designed 

to image electron arrangements and interactions in crystals revealed electrons that possess 

extraordinary mass under certain extreme conditions. These heavy electrons appear to be 

confined electrons as they interact with crystal lattices that they traverse. Apparently, under 

extreme conditions, unusual phase transitions occur in particular materials causing electrons to 

take on extraordinary mass. These heavy electrons are apparently unstable unless they interact 

with and acquire mass in certain crystalline lattice structures. 

 

This thought experiment adopts the idea that spacetime is particulate and substantive - and that 

certain manifestations spacetime voxels appear as electrons. The Standard Model of Particle 

Physics postulates the existence of the Higgs boson which imparts to electrons and other 

elementary particles gravitational mass and inertia. The Higgs boson was inserted in the Standard 

Model ad hoc - along with other elementary particles which are grouped in an arbitrary way and 

which depend on 24 numbers whose values cannot be deduced from first principles, but which 

need to be chosen to fit the observations. Although the Standard Model is imperfect, it is 

considered adequate for present purposes. Spacetime voxels, as conceived here, have the 

properties attributed to the Higgs boson and may incrementally impart mass to elementary 

particles. 

 

 

 

 

 

 

 



DNA Decipher Journal | July 2017 | Volume 7 | Issue 1 | pp. 17-26 
Vary, A., Fibonacci Sunflowers, Mathematical Objects & Cubic Electrons 

 

ISSN: 2159-046X DNA Decipher Journal 
Published by QuantumDream, Inc. 

www.dnadecipher.com 

 

26 

Conclusion 
 

The previous discussion elaborates on the uncanny relations among pure, perfect mathematical 

objects and physical, material, measurable, objects to the quantum level. In the case of Euler’s 

identity we note that even one of the most esoteric mathematical statements relates to mundane 

objects and actions. The Fibonacci sequence and golden ratio are so pervasive that one is tempted 

to conclude that objective reality is governed by the sequence and ratio. Of course, they are simply 

mathematical descriptors which have observable manifestations. Other mathematical constructs, 

such as the de Broglie - Bohm ‘pilot-wave’ theory describe unobservable quantum phenomena and 

attempt to explain their measurable behavior. They are purely intellectual constructs - without 

empirical content but necessary for scientific reasoning. The cubic electron conceptualization 

incorporates string theory to assign structure to an ostensibly structureless entity to explain 

experimental observations and measurements. Mathematical conceptualizations may anticipate 

aspects of empirical reality later discovered by sophisticated observations and measurement 

techniques.  

 

The examples cited illustrate that “. . . mathematical as well as logical reasoning make explicit 

what is implicitly contained in a set of premises while contributing to the content of our knowledge 

of empirical matters . . . mathematics is entirely indispensable as an instrument for the validation 

and even for the linguistic expression of such knowledge” [6]. We note that mathematical truths 

which echo empirical observations and discoveries of experimental science illuminate and often 

predict them. 

 

 

References 
 
1. Shape of Inner Space, Shing-Tung Yau and Steve Nadis, Basic Books, 2010. 

2. My Universe - A Transcendent Reality (Part Three, pp. 147-149), A. Vary, Xlibris, 2011.   

3. A Suggested Interpretation of the Quantum Theory in Terms of Hidden Variables. David Bohm, 

Physical Review 85: 166–179, 1952  

4. Three Roads to Quantum Gravity, Lee Smolin, Basic Books, 2001. 

5. Cubic Lattice Nucleus Model & Cryogenic Cosmology, A. Vary, Prespacetime J, Vol. 7, No 2, 2016. 

6. On the Nature of Mathematical Truth, Carl G. Hempel, in The World of Mathematics, Vol. III, James R. 

Newman, ed., Simon and Shuster, 1956. 

 


