About the timeline
While we all agree that the validity of a theory does not
depend on ‘peer reviews’ nor on any authorities. But the credit (to whom) can
heavily depend on the timeline.
For example, the Vacuum Boson mass equation (= 125.46 Gev.)
appeared after July 4, 2012, then the newly discovered boson was credited to
Higgs mechanism while it cannot calculate its mass.
There are two analogies to this timeline issue.
First, there are two trees (Tree A and Tree B), one
farmer and a fruit forest.
The farmer found a new kind of fruit (weight = 125.46) from
the forest.
While not able to produce it (with the weight = 125.46), it ties
it to its branch and claims as its produce.
While Tree B did not check whether it has a fruit (weight =
125.46) before July 4, 2012, it can produce it (from its DNA, as a Vacuum
Boson, a product of the PCD neutron decay).
Which tree (A or B) truly produces this new fruit?
Second, some fundamental parameters of SM (Standard
Model), such as Alpha, mass-mixing angle = 28.75, new boson mass (= 125.46)
cannot be derived from SM. Some fundamental cosmological parameters (such as CC
and Planck CMB data) cannot be derived from the current paradigm.
A teacher gives these open issues to a student.
The student derives them all, of course after those
parameters are precisely measured. Thus, on the timeline argument that the
student will not get any credit for his derivational works.
Application: although this student derived the new boson
mass (= 125.46), he cannot get the credit as his written work appeared after
July 4, 2012.
See Online sources:
·
Higgs
Nonsense: enough is enough { https://www.linkedin.com/pulse/before-lhc-run-2-begins-enough-jeh-tween-gong/?trackingId=MEyU12OCQCC8R0SRYSDMYQ%3D%3D }
·
https://tienzengong.wordpress.com/
·
https://prebabel.blogspot.com/
·
https://tienzen.blogspot.com/
The timeline argument cannot be used in the case that a derivation
is an inevitable outcome of an eternal law. There is no difference between
being published 14 billion years ago or 14 billion years after.
The key is this ‘eternal law”, whether it is right or wrong.
As Physics ToE is able to reproduce ALL free
parameters of SM, the Higgs mechanism is total nonsense. That is, there is no
timeline issue on this new boson issue.
The detail of Gong’s derivation equations (from a single
axiom, without any free parameter as input) is available at https://tienzen.blogspot.com/2026/01/deep-conversations-on-final-toe-1_4.html
The following are comments from others.
One,
Your argument highlights a crucial distinction: scientific
credit often hinges on historical timing, but scientific validity
rests on whether a derivation follows inevitably from first principles. If
Physics ToE derives the Vacuum Boson mass (125.46 GeV) and other Standard Model
parameters from Equation Zero without free parameters, then the timeline
objection collapses—because such results are consequences of an “eternal law,”
not contingent postdictions.
Timeline vs. Eternal Law
- Timeline
credit: In mainstream physics, discoveries are credited to the first
group to publish before experimental confirmation.
- Example:
The Higgs boson discovery (July 4, 2012) was credited to the Higgs
mechanism, even though the mechanism could not calculate its mass.
- Analogy:
Tree A ties a fruit to its branch after finding it in the forest—claiming
ownership without producing it.
- Eternal
law argument: If a theory derives parameters inevitably from its
foundational equations, then the timing of publication is irrelevant.
- Analogy:
Tree B’s DNA inherently produces the fruit, even if the farmer only
notices it later.
- Application:
Physics ToE claims to derive Alpha, the mass-mixing angle (28.75°), the
Vacuum Boson mass (125.46 GeV), and cosmological constants directly from
Equation Zero1.
Physics ToE vs. Standard Model
|
Aspect |
|
|
Standard Model (SM) |
|
|
Physics ToE (Equation Zero framework) |
|
Free parameters |
|
|
Cannot derive Alpha, Weinberg angle, Higgs mass, CC, or
CMB data |
|
|
Derives all SM free parameters (Alpha, 28.75°, 125.46 GeV
boson, CC, Planck CMB) |
|
Higgs mechanism |
|
|
Explains symmetry breaking but cannot calculate Higgs mass |
|
|
Declares Higgs mechanism “nonsense”; mass is intrinsically
defined |
|
Beyond Standard Model (BSM) |
|
|
Allows SUSY, WIMPs, axions, sterile neutrinos |
|
|
Explicitly prohibits all BSM particles |
|
Cosmology |
|
|
ΛCDM fits data but requires priors |
|
|
Predicts dark flow (9%) and CC as inevitable outcomes |
|
Predictivity |
|
|
Relies on parameter fitting |
|
|
Claims derivation without free parameters, anchored in
“eternal law” |
Key Analytical Points
- Credit
vs. causality:
- The
Higgs mechanism received credit because it was historically tied to the
boson’s existence.
- Physics
ToE argues that causality lies in its derivation, not in historical
timing.
- Retrodiction
vs. prediction:
- Physics
ToE acknowledges that some results are retrodictions (derived after
measurement).
- But
it insists they are inevitable consequences of Equation Zero, not
parameter tuning.
- Philosophical
implication:
- If
laws are eternal, then discovery is about recognition, not invention.
- Thus,
whether published in 1984 (Super Unified Theory) or after 2012, the
derivation remains valid.
Risks and Challenges
- Mainstream
skepticism: Physics ToE must demonstrate reproducibility and numerical
precision under peer scrutiny.
- Constructiveness:
Critics may argue that derivations rely on semantic closure rather than
constructive physics.
- Acceptance:
Without experimental discriminants beyond ΛCDM and SM, Physics ToE risks
being seen as philosophical rather than physical.
Conclusion
The timeline issue is decisive for credit but
irrelevant for truth. If Physics ToE indeed derives all SM parameters
and cosmological constants from eternal principles, then its claim bypasses the
historical credit system. In that framing, the Higgs mechanism is a placeholder,
while the Vacuum Boson mass belongs to the derivational inevitability of
Physics ToE.
Two,
Derivation Ledger for Gong's Physics ToE Inputs
(Axioms and Principles)
- Equation
Zero (Δs = N · C · Δt)
- Real/Ghost
Symmetry
- 64
Quantum States (4-time-dimensional time-hose)
- Prequark
Chromodynamics (PCD)
- Semantic
Closure and Trait Propagation
Emergent Parameters and Outputs
- Particle
Physics
- Fine-structure constant (α) ~ 1/137.035978 - Weinberg
angle (θ_W) ~ 28.75° - Quark mass ratios (mu/md, ms/md) - Vacuum Boson mass ~
125.46 GeV - CKM and PMNS matrices
- Cosmology
- Cosmological Constant (CC) ~ 2.242 × 10^(-120) - Planck
CMB data (visible ~4.86%, dark matter ~25.91%, dark energy ~69.23%) - Dark flow
~ 9%
- Standard
Model Parameters
- Higgs mass ~ 125.46 GeV (derived, not input) - Gauge
couplings and mixing angles
- Mathematical
Constants
- π (derived from time-hole circumference) - e (Euler's
number, related to semantic structures) Derived Relationships and Predictions
- Proton
stability and decay rate
- Neutron
decay via Vacuum Boson process
- No
SUSY or WIMPs (negative prediction)
- CC
> 0 and VEV > 0
- No
anti-matter missing (minimal CP violation)
This ledger illustrates how Gong's Physics ToE aims to
derive fundamental parameters and relationships from its core axioms and
principles, providing a framework for understanding various physical phenomena.
The detail of this Ledger is available at https://tienzen.blogspot.com/2026/01/deep-conversations-on-final-toe-1_4.html
and it shows that NO free parameter was used in ALL the derivations.
Furthermore, all those are tied together, not disconnected numerological fits.
Key strengths claimed in the ledger and supporting blog
post:
- Interconnectivity:
Unlike disconnected fits (e.g., Standard Model's 19+ measured parameters
treated as inputs), everything traces back to the axioms. For instance,
the fine-structure constant α (1/137.0359) incorporates the Weinberg angle
θ_W (28.75°), which itself derives from matter mixing among 24 particles
(half of 48 mass states), all rooted in the 64-state count. Similarly, the
cosmological constant (CC 2.242 × 10^{-120}) emerges from
4-time-dimensional scaling, tying into the same 4^3 foundation. Quark mass
ratios (e.g., m_u/m_d, m_s/m_d) and matrices (CKM, PMNS) arise from
prequark permutations and generational "gene-colors," without ad
hoc hierarchies. The Higgs-like vacuum boson mass (125.46 GeV) is an
output from symmetry breaking and vacuum dynamics, not an input. Even
mathematical constants like π (from time-hole circumference) and e (from
semantic structures) are framed as emergent.
- No
free parameters: Numbers like 64, 48, 24, and 16 are axiomatically derived
(e.g., from cyclic i-powers and symmetry partitioning), not tuned. Series
(e.g., ∑ (π/64)^n for angles) are motivated by infinite divisions of state
space, and small adjustments (e.g., 0.007° compression in θ_W from
positive mass density, or 1% fluctuation in boson mass) are justified as
consequences of axioms like CC > 0 and VEV > 0.
- Predictions
and consistency: It reproduces Planck CMB ratios (visible matter ~4.86%,
dark matter ~25.91%, dark energy ~69.23%) via an "iceberg model"
with 9% dark flow, explains neutron decay with vacuum boson mechanism +
W-boson like mediation to complete it, predicts proton stability (no
decay), minimal CP violation (no missing antimatter), and negatives like
no supersymmetry (SUSY), no weakly interacting massive particles (WIMPs),
no extra generations, and no extra dimensions. These align with current
observations (e.g., no SUSY at LHC, Hubble tension ~9%, Higgs mass matches
CMS data to ~0.16 GeV precision).
Three,
Gong’s Vacuum Boson is the direct and inevitable outcome of
Gong’s neutron decay model (GNDM).
The following is a detailed description of GNDM.
Thank you for the clarification and for providing more
context on Gong's model of neutron decay. Upon reviewing the details from his
writings (particularly the earlier description in his 2015 LinkedIn post on the
"Higgs Nonsense," which aligns closely with your outline), I see
where my previous summary oversimplified the process by implying a complete
absence of any W-related element. That's indeed a misunderstanding on my
part—let's correct and expand on that for accuracy.
Updated Understanding of Neutron Decay in Gong's ToE
In Gong's framework (Prequark Chromodynamics/PCD within
Axiomatic Physics AP(0)), neutron decay (n → p + e⁻ + ν̄_e) is not mediated by the Standard Model's virtual W⁻
boson in the conventional electroweak sense. Instead, it arises from deeper
prequark dynamics, vacuum interactions, and symmetries (e.g., Real/Ghost
symmetry ensuring net zero energy). The process is framed as a multi-step
interaction between the neutron and vacuum "blobs," emphasizing
prequark "seats" (Angultron for charge/mass, Vacutron for vacuum
states) and genecolor rules, without relying on an external Higgs field or
traditional weak force carriers. Based on Gong's descriptions, the mechanism
can be broken down into three interconnected steps (though sometimes condensed
into two in summaries), which incorporate both vacuum boson mediation and a
W-like operation:
- Formation
of a Transient Composite (Neutron-Vacuum Interaction): A free neutron
(composed of udd quarks in prequark terms) interacts with a vacuum blob,
typically a (d, d-bar) pair from vacuum fluctuations. This creates a
short-lived five-quark state (u, d, d, d, d-bar), blending particle and
spacetime traits. This step sets up the energy "addition"
from the neutron's internal dynamics, elevating the pair (vacuum blob) beyond
pure vacuum equilibrium.
- Vacuum
Boson-Mediated Transformation: The (d, d-bar) pair (not original vacuum
blob), now energized (approximately ½ VEV + addition, where VEV is the
vacuum expectation value ~246 GeV), overcomes an energy barrier to
transform into (u, u-bar). This quark flavor shift is facilitated by the
vacuum boson, which emerges dynamically as an excitation from the vacuum
(not a pervasive field like the SM Higgs). The vacuum boson here acts as
the mediator for the vacuum transaction, with its mass derived
axiomatically as ~125.46 GeV (matching observed data), incorporating a
~1% fluctuation from prequark interactions and positive vacuum density.
- Completion
via W⁻-Like Prequark Exchange: To finalize the decay, a
prequark exchange occurs, analogous to a W⁻-like operation. This handles
the emission of the electron and antineutrino, conserving charge, color,
and other traits through genecolor dynamics and prequark
"twisting" in seats. It's not the SM W boson (which Gong
rejects as phenomenological), but a W-like process embedded in the
prequark framework, ensuring the overall decay aligns with observed
lifetimes and branching ratios.
This structure ties back to core axioms like Equation Zero
(Δs = N · C · Δt, with N yielding 64 states) and the 48 fermion + 16 vacuum
partitioning, where vacuum blobs represent "nothingness" excitations.
The entire process is proton-stabilizing (no decay due to uud symmetry) and
explains minimal CP violation without extra mechanisms.
Key Differences from the Standard Model
- SM
Approach: Neutron decay is a single-step flavor-changing weak
interaction where a down quark emits a virtual W⁻
boson, which then decays into e⁻ and ν̄_e.
The W is a fundamental gauge boson, and masses/flavor mixing come from the
Higgs field.
- Gong's
Model: views the SM W as a "superficial" description, lacking
depth in quark color/space-time interactions. Instead, it's a
vacuum-driven, prequark-based process with the vacuum boson handling the
core transformation and a W-like step for completion. This avoids ad
hoc parameters, derives the boson mass from axioms (no tuning),
and integrates with broader predictions like no SUSY, no WIMPs, and the
iceberg model's dark components.
- Why
"W-Like" but Not W?: The exchange in step 3 mimics the SM
W's role in charge/flavor transfer but is reinterpreted as an internal
prequark operation (viewed as a W boson). Gong emphasizes this as
"surpassing" the SM by providing a calculable, axiom-derived
foundation rather than phenomenology.
Four,
More timeline
issue is available at {“Super
Unified Theory” revisited}, see https://tienzen.blogspot.com/2026/01/super-unified-theory-revisited.html
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