**Chronon Field, Time Atoms, and Quantized Time: Time Asymmetry
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A directional time does not feature in Newtonian mechanics, in electromagnetic theory, in quantum mechanics, in the equations which describe the world of elementary particles (with the exception of the kaon decay), and in some border astrophysical conditions, where there is time symmetry. Yet, we perceive the world of the macro as time asymmetric and our cosmology and thermodynamics explicitly incorporate a time arrow, albeit one which is superimposed on the equations and not derived from them. The introduction of stochastic processes has somewhat mitigated this conundrum.

Time is, therefore, an epiphenomenon: it does not characterize the parts – though it emerges as a main property of the whole, as an extensive parameter of macro systems.

**History of the Chronon and Quantized Time in Physics**

The idea of atomistic, discrete time has a long pedigree in
physics (**Descartes, Gassendi, Torricelli**, among others). More recently, **Boltzmann,
Mach**, and even **Poincare** all toyed with the concept. There was a
brief flowering of various speculative and not very rigorous, almost
metaphysical or numerological models immediately after the introduction of
quantum mechanics in the 1920s and 1930s (**Palacios, Thomson** indirectly, **Levi**
who coined the neologism “chronon”, **Pokrowski**, **Gottfried Beck,
Schames, Proca** with his “granular” time, **Ruark, Flint and Richardson,
Glaser and Sitte**).

Oddly, luminaries such as **Pauli, de Broglie**, and
especially **Schroedinger** were drawn into the fray, together with lesser
lights like **Wataghin, Iwanenko, Ambarzumian, Silberstein, Landau, and
Peierls**. By now, everyone was talking about minimal durations (somehow
derived from or correlated to the mass or some other property of each type of
elementary particle), not about time “atoms” or a lattice. This subtle conceptual
transition between mutually-contradictory notions caused an almighty and
enduring confusion. Is time itself somehow discrete/quantized/atomized – or are
our measurements discontinuous?

Ever since the early 1960s and especially during the 1990s,
there have been several attempts to build on the work of the likes of **H. S.
Snyder** (Physical Review 71, (1) 1947, 38) to suggest a quantized spacetime
or a Quantum Field Theory, **Tsung Dao Lee’s **work being the most notable
attempt. More recent work with relativistic stochastic models led inexorably to
discrete time

**P. Caldirola** postulated the
existence of a chronon (1955, 1980): ** “An elementary interval of time
characterizing the variation of the particle’s state under the action of
external forces”. **He calculated chronons for several types of
particles, most notably the electron, both classical and in (nonrelativistic)
quantum mechanics.

In 1982-3, **Sam Vaknin** proposed that chronons may be
actual particles – more about Vaknin’s work HERE. A
decade later, in 1992, **Kenneth J. Hsu** suggested the very same thing
(though without reference to Vaknin’s work). He postulated sequencing cues
delivered to particles by captured chronons. Like Vaknin, he hypothesized the
existence of various types of chronons (“large” and small). Chronons, wrote Hsu
are also involved in the catalysis of events. Finally, like Vaknin, Hsu also
posited a field theory for the flow of chronons. In 1994, **C. Wolf** again
suggested the existence of time atoms (Nuov. Cim. B 109 (3) 1994 213).

In 1993, **Arthur Charlesby** suggested that particles
have an intrinsic discrete time property and that time (interval in the
presence of relative motion) has a “quantized nature”. This dispenses with the
need for a wave concept as a mere mathematical expedient in the case of
individual events (though still useful in contemplating continuous relative
motion). This notion of “proprietary” or “individual” system-specific time as
distinct from a “systemic”, overall Time was further explored by **Alexander
R. Karimov** in 2008.

In the same year (1993), **Sidney Golden** published a
paper in which he claimed that *“quantum time-lapses are ... an essential
feature of the changes undergone by the energy-eigenfunction-evaluated matrix
elements of statistical operators that evolve in accordance with an intrinsic
temporal discreteness characteristic of strictly irreversible behavior.”*

A year later, in 1994, **A. P. Balachandran** and **L.
Chandar** studied the quantized of time in discretized gravity models with
multiple-valued Hamiltonians. **Ruy H. A.** **Farias **and** Erasmo
Recami **(2010) applied a quantum of time to obtain startlingly impressive
consequences regarding the treatment of electrons (and, more generally,
leptons), the free particle, the harmonic oscillator, and the hydrogen atom in
both classical and quantum physics, in effect proffering a discretized and
surprisingly powerful and useful quantum mechanics. Strangely, their work had
very little resonance.

Quantized time has been used to suggest solutions to a
panoply of riddles in physics, including the K-meson decay, the Klein-Gordon
equation, and the application of Kerr-Newman black holes to electron theory,
q-deformations and stochastic subordination (“quantum subordination”), among others
(**R. Hakim**, Journal of Mathematical Physics 9 1968, 1805; **B. G.
Sidharth**, 2000, **Alexander R. Karimov**,2008; **Claudio Albanese and
Stephan Lawi**).

In his doctoral dissertation (Ph.D. Thesis available from the Library of Congress), Vaknin postulates the existence of a particle (chronon). Time is the result of the interaction of chronons, very much as other forces in nature are "transferred" in such interactions.

The Chronon is a time "atom" (actually, an elementary particle, a time "quark"). We can postulate the existence of various time quarks (up, down, colors, etc.) whose properties cancel each other (in pairs, etc.) and thus derive the time arrow (time asymmetry).

Vaknin’s postulated particle (chronon) is not only an ideal
clock, but also mediates time itself (same like the relationship between the
Higgs boson and mass.) In other words: I propose that what we call
"time" is the interaction between chronons in a field. The field ** is**
time itself. Chronons exchange a particle and thereby exert a force which we
call time. Introducing time as a fifth force gives rise to a
quasi-deterministic rendition of quantum theories and links inextricably time
to other particle properties, such as mass.

"Events" are perturbations in the Time Field and they are distinct from chronon interactions. Chronon interactions (i.e. particle exchange) in the Time Field generate "time" (small t) and "time asymmetry" as we observe them.

Vaknin’s work is, therefore, a Field Theory of Time. The Universe is observing itself. It is the only privileged observer and frame of reference, which restores intuitive (Einsteinian) determinism to physics.

**Future directions of research in Sam Vaknin’s Work**

Timespace can be regarded as a wave function with observer-mediated collapse. All the chronons are entangled at the exact "moment" of the Big Bang. This yields a relativistic QFT with chronons as its Field Quanta (excited states.) The integration is achieved via the quantum superpositions.

Another way to
look at it is that the metric expansion of time is implied if time is a fourth
dimension of space.** **Time may even be described as a PHONON of the metric
itself.

A more productive approach may involve Perturbative QFT. Time from the Big Bang is mediated by chronons and this leads to expansion (including in the number of chronons.) In this case, there are no bound states.

Chronons as excitation states (stochastic perturbations, vibrations) tie in nicely with superstring theories, but without the baggage of extra dimensions and without the metaphysical nonsense of "music of the spheres”. Perturbations also yield General Relativity: cumulative, "emerging" perturbations amount to a distortion (curvature) of time-space. Both superstring theories and GRT are, therefore, private cases of a Chronon Field Theory.

**Eytan H.
Suchard’s Work**

Interacting particles with non-gravitational fields can be seen as clocks whose trajectory is not Minkowsky geodesic.

A field in which a small enough clock is not geodesic can be described by a scalar field of time whose gradient has non-zero curvature. The scalar field is either real which describes acceleration of neutral clocks made of charged matter or imaginary, which describes acceleration of clocks made of Majorana type matter.

This way the scalar field adds information to space-time, which is not anticipated by the metric tensor alone. The scalar field can’t be realized as a coordinate because it can be measured from a reference sub-manifold along different curves.

In a “Big Bang” manifold, the field is simply an upper limit on measurable time by interacting clocks, backwards from each event to the big bang singularity as a limit only.

In De Sitter / Anti De Sitter space-time, reference sub-manifolds from which such time is measured along integral curves are described as all the events in which the scalar field is zero. The solution need not be unique but the representation of the acceleration field by an anti-symmetric matrix is unique up to SU(2) x U(1) degrees of freedom.

Matter in Einstein-Grossmann equation is replaced by the action of the acceleration field, i.e. by a geometric action which is not anticipated by the metric alone. This idea leads to a new formalism of matter that replaces the conventional stress-energy-momentum-tensor. The formalism will be mainly developed for classical but also for quantum physics. The result is that a positive charge manifests small attracting gravity and a stronger but small repelling acceleration field that repels even uncharged particles that measure proper time, i.e. have rest mass.

The negative charge manifests a repelling anti-gravity but also a stronger acceleration field that attracts even uncharged particles that measure proper time, i.e. have rest mass.

The theory leads to causal sets. Spacetime
exists only where a chronon wave-function collapses. Work still to be done is to
replace particles by strings of collapse events. The theory in its quantum form
is of events and not of particles.

The theory has technological repercussions and implications regarding "Dark Matter" and "Dark Energy".

Read “**Electro-gravity
via geometric chrononfield**” by **Eytan H. Suchard** (Journal of
Physics: Conference Series, Volume 845, conference 1), presented at the 10th
Biennial Conference on Classical and Quantum Relativistic Dynamics of Particles
and Fields, 6–9 June 2016, Ljubljana, Slovenia **Vixra**

**(PDF
version) (Updated ArXiv) (Research
Gate)**

Read “**Upper Time Limit,
Its Gradient Curvature, and Matter**” **by Eytan H. Suchard (**Journal of
Modern Physics and Applications 2014, 2014:5)

Read **“Absolute
Maximum Proper Time to an Initial Event, the Curvature of Its Gradient along
Conflict Strings and Matter” by Eytan H. Suchard **(Journal of Modern Physics Vol.4 No.6 (2013), Article ID:33086**)**

Read the original paper** “Upper Time Limit, Its Gradient
Curvature, and Matter” by Eytan H. Suchard **and
a corrected,** updated
version (**or** HERE **or** HERE)**

Read “**Electro-gravitational
Technology via Chronon Field****” ****by Eytan H. Suchard **(**Physical
Science International Journal, Vol. 4 Issue 8**
(2014) – **Abstract** – **Supplementary
Files - DOI**

Read “**Electro-gravity via Geometric
Chronon Field**” by Eytan H. Suchard (Physical Science International
Journal, Vol. 7 Issue 3 (2015) pp152-185 - **Abstract**

**Historical Bibliography of Chronons and Quantized Time**

**Chapter 2 –
Introduction of a Quantum of Time (“chronon”), and its Consequences for the
Electron in Quantum and Classical Physics** - Ruy H.A. Farias, Erasmo Recami - doi:10.1016/S1076-5670(10)63002-9
- Advances
in Imaging and Electron Physics - Volume 163, 2010, Pages 33–115 -
Published by Elsevier

** **

**From time atoms
to space-time quantization: the idea of discrete time, ca 1925–1936** - Helge Kragh, Bruno Carazza - doi:10.1016/0039-3681(94)90061-2
- Studies in
History and Philosophy of Science Part A - Volume 25, Issue 3, June 1994,
Pages 437–462 - Published by Elsevier

** **

**The chaotic
universe** - B.G. Sidharth -
doi:10.1016/S0960-0779(98)00332-4
- Chaos,
Solitons & Fractals - Volume 11, Issue 8, June 2000, Pages 1171–1174 -
Published by Elsevier

** **

**Quantized
space-time and time’s arrow**
- B.G. Sidharth - doi:10.1016/S0960-0779(98)00331-2
- Chaos,
Solitons & Fractals - Volume 11, Issue 7, 1 June 2000, Pages 1045–1046
- Published by Elsevier

** **

**The quantum
dimension of space-time** -
Enrique Alvarez, Juli Cespedes, Enric Verdaguer - doi:10.1016/0960-0779(94)90054-X
- Chaos,
Solitons & Fractals - Volume 4, Issue 3, March 1994, Pages 411–414 -
Published by Elsevier

** **

**Discrete time
from quantum physics** -
A.P. Balachandran, L. Chandar - doi:10.1016/0550-3213(94)90207-0
- Nuclear
Physics B - Volume 428, Issues 1–2, 10 October 1994, Pages 435-448 -
Published by Elsevier

** **

**Quantization of
time: an implication of strictly-irreversible evolution of dynamically isolated
quantum systems** - Sidney
Golden - doi:10.1016/0378-4371(94)90534-7
- Physica A:
Statistical Mechanics and its Applications - Volume 208, Issue 1, 1 July
1994, Pages 65-90 - Published by Elsevier

** **

**Radiation:
Waves or particles? A quantized approach to time** - Arthur Charlesby - doi:10.1016/0969-806X(93)90416-R
- Radiation
Physics and Chemistry - Volume 42, Issues 4–6, October–December 1993, Pages
977–984 - Published by Elsevier

** **

**Waves and
particles**—quantisation of
the interval between events - Arthur Charlesby - doi:10.1016/0969-806X(94)00085-9
- Radiation
Physics and Chemistry - Volume 45, Issue 2, February 1995, Pages 175–186 -
Published by Elsevier

** **

**The Snyder
space-time quantization, q-deformations, and ultraviolet divergences** - R.M. Mir-Kasimov - doi:10.1016/0370-2693(96)00408-X
- Physics
Letters B - Volume 378, Issues 1–4, 20 June 1996, Pages 181–186 - Published
by Elsevier

** **

**Chronon
Corrections to the Dirac Equations** - Andrei A. Galiautdinov and David R. Finkelstein - ArXiv, June 17, 2018

** **

**Other
Bibliography**

** **

Lévi, Robert
(1927) - **Théorie de
l'action universelle et discontinue** - Journal de Physique et le Radium
8 (4): 182–198

** **

Margenau, Henry - **The
Nature of Physical Reality** - McGraw-Hill, 1950

Yang, C. N. - **On quantized
space-time** - Physical Review 72 (9): 874

Caldirola, P. - **The introduction of
the chronon in the electron theory and a charged lepton mass formula** -
Lett. Nuovo Cim. 27 (8): 225–228

Albanese, Claudio;
Lawi, Stephan - **Time
Quantization and q-deformations** - Journal of Physics A. 37 (8):
2983–2987

Hsu, Kenneth J. - **In
search of a Physical Theory of Time** - Proceedings of the National
Academy of Sciences of the United States of America - 01 November 1992,
Vol.89(21), pp.10222-10226

Hsu, Kenneth J. - **Are
Chronons the Elementary
Particles in space and Time? **- Terrestrial, Atmospheric, and Oceanic
Sciences

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