Glossary
Foundational
Concepts of General Mechanics
Acoustic/Phononic Systems: Systems that manipulate
material vibrations (phonons) to encode information in collective modes
and perform computation via controlled phonon-phonon interactions.
Acoustic Transducers: Devices that convert
electrical signals into sound waves and vice versa, used in QRC to
generate or detect frequency patterns.
Action Functional: A mathematical functional
mapping a system’s “history” or path to a scalar value (the “action”).
In General Mechanics, the principle of stationary action (\(\delta S = 0\)) governs the Universal
Relational Graph (URG)‘s evolution by selecting the most probable
computational histories. (Theory of General Mechanics,
Section 12)
AdS/CFT Correspondence: A conjectured mathematical
equivalence between a theory of gravity in higher-dimensional Anti-de
Sitter (AdS) spacetime and a quantum field theory (Conformal Field
Theory, CFT) without gravity on its lower-dimensional boundary. It
realizes the Holographic Principle.
Algorithmic Randomness: A property of a sequence or
object indicating high Kolmogorov complexity, meaning it cannot be
significantly compressed or described by a shorter algorithm. In General
Mechanics, it relates to the inherent unpredictability and complexity of
the universe’s computational states, arising from its computational
irreducibility. (Theory of General Mechanics, Part II)
Algorithm (QRC): In Quantum Resonance Computing
(QRC), an algorithm is an orchestrated sequence of frequency pattern
manipulations, resonant interactions, and coherence shaping operations
designed to achieve a specific computational outcome.
Alcubierre Warp Drive: A speculative solution to
Einstein’s field equations allowing apparent faster-than-light travel by
contracting spacetime in front of a vessel and expanding it behind,
theoretically requiring “exotic matter” with negative energy density.
CWM (within GM) reinterprets this as a problem of engineering the vacuum
medium by manipulating its energy density and properties.
(Theory of General Mechanics, Section 32.2;
Physical Interpretation of Mass and Spacetime, Part
III)
Analog Computing: A computing paradigm that models
problems using continuous physical phenomena (e.g., electrical,
mechanical, hydraulic quantities). QRC is an advanced form leveraging
the continuous, wave-like nature of reality for computation.
Angular Frequency (\(\omega\)): A measure of rotational
speed or oscillation rate, expressed in radians per unit time. It
relates to standard frequency (\(\nu\))
as \(\omega = 2\pi\nu\).
Anharmonicity: In quantum mechanics, the deviation
of a real-world oscillator from the idealized Quantum Harmonic
Oscillator, resulting in non-uniform energy level spacing. In CWM, it
leads to complex dynamics and, when managed (engineered anharmonicity),
can be a computational resource or, when uncontrolled, a source of noise
and decoherence. (Treatise on Clocks and Taxonomies,
Section 31.7)
Annihilation (Particle Physics): The process where
a particle and its antiparticle collide and convert into other particles
or energy. In CWM, this is reinterpreted as destructive interference
between two complementary frequency patterns within the universal
medium, releasing concentrated energy or forming new patterns.
(Theory of General Mechanics, Part II)
Anthropic Principle: The philosophical
consideration that observations of the physical universe must be
consistent with the conscious life that observes it. General Mechanics
offers a non-anthropic solution to the fine-tuning problem, suggesting
the universe is self-tuning through Autaxys rather than being fine-tuned
for observers.
Antenna Hypothesis: A speculative hypothesis within
General Mechanics positing the brain as a dual-function transceiver
sensitive to subtle fields, with the skull acting as a boundary
condition shaping the brain’s electromagnetic field.
(Treatise on Clocks and Taxonomies, Section 34).
Anthropocentrism: The belief that value is
exclusively human-centered, viewing all other beings and the natural
world as mere means to human ends. CWM (within GM) explicitly aims to
transcend this by advocating a post-anthropocentric communication
praxis. (Treatise on Clocks and Taxonomies, Section
33.3)
Antimatter: Matter composed of antiparticles. In a
frequency universe, antimatter particles are reinterpreted as patterns
with complementary or inverse phase relationships to their matter
counterparts, leading to mutual annihilation upon interaction.
Anyons: Exotic quasiparticles existing in
two-dimensional systems, whose braiding in spacetime can encode quantum
information in Topological Quantum Computing.
Arithmetic Groups: Discrete subgroups of Lie groups
arising from number theory. In General Mechanics, emergent spacetime
symmetries may relate to these groups on hyperbolic manifolds.
Asymptotic Freedom: A property of the strong
nuclear force where quark interaction weakens at high energies, allowing
quarks to move almost freely within a confined region.
Atomic Clocks: Highly precise timekeeping devices
that measure time using atomic resonant frequencies, relevant for
detecting minute variations in fundamental constants.
Attributed Hypergraph: A hypergraph where both
vertices and hyperedges have associated data or properties (attributes).
In General Mechanics, the Universal Relational Graph (URG) is an
attributed hypergraph, with attributes representing fundamental physical
properties.
Attunement Protocol: A principle within GM’s
post-anthropocentric praxis that reframes communication as resonance,
where meaning emerges in the dynamic, feedback-driven process of mutual
interaction, rather than simple information transmission.
(Treatise on Clocks and Taxonomies, Section 33.3)
Autaxic Lagrangian (\(\mathcal{L}_A\)) A computable
scalar function within General Mechanics that quantifies the
“ontological fitness” or viability of any given universe state or
evolutionary path. It acts as the ultimate fitness function, guiding the
Universal Relational Graph (URG)’s evolution toward more stable,
efficient, and persistent patterns through a variational principle.
(Theory of General Mechanics, Section 16)
Autaxic Trilemma: The fundamental and irresolvable
tension within Autaxys between three competing but globally synergistic
imperatives: Persistence (P), Efficiency (E), and Novelty (N). This
dynamic tension drives the universe’s generative cycle and cosmic
evolution. (Theory of General Mechanics, Section 16;
Natural Units: Universe's Hidden Code, Section 7.1)
Autaxys: From the Greek auto (self) and
taxis (arrangement), Autaxys is General Mechanics’ posited
inherent, irreducible principle of cosmic self-generation and
self-organization. It is the universe’s intrinsic “computational
grammar” that perpetually guides the formation of more stable,
efficient, and persistent patterns across all scales.
(Theory of General Mechanics, Section 16;
Natural Units: Universe's Hidden Code, Section 3.1)
Autopoiesis: A concept describing living cells as
self-creating and self-sustaining systems through internal processes. In
General Mechanics, autopoiesis is generalized to the cosmological scale
as Autaxys, describing the universe’s overall self-organization.
(Theory of General Mechanics, Section 16)
Baryon: A composite subatomic particle made of
three quarks (e.g., protons and neutrons). In a frequency universe,
baryons are stable, complex standing wave patterns formed by the
confinement and resonant interaction of three fundamental quark
frequency patterns.
Baryonic Tully-Fisher Relation: An empirical law in
astrophysics describing a tight correlation between a galaxy’s baryonic
mass (visible matter) and its asymptotic rotation velocity. This
relation is naturally predicted by Modified Newtonian Dynamics (MOND)
and integrated into CWM’s explanation of Dark Matter phenomena.
(Physical Interpretation of Mass and Spacetime, Section
23.3)
Bekenstein Bound: A universal upper limit on the
entropy (information) that can be contained within any finite region of
space with a finite amount of energy. Derived from black hole
thermodynamics, this principle is fundamental to CWM’s understanding of
holographic information limits.
(Physical Interpretation of Mass and Spacetime, Section 5;
Formal Framework for a Non-Local Frequency-Based Reality,
Section 8)
Bekenstein-Hawking Entropy Formula: A formula
(\(S{BH} = \frac{kB A}{4 l_P^2}\))
that quantifies a black hole’s entropy, explicitly showing it to be
proportional to the area of its event horizon, not its volume. This
formula is a cornerstone for the Holographic Principle in CWM.
(Physical Interpretation of Mass and Spacetime, Section
5)
Bell’s Theorem: A foundational theorem by John
Stewart Bell stating that any physical theory based on local hidden
variables (local realism) would produce statistical correlations
measurably different from standard quantum theory’s predictions. Its
consistent experimental violation is a foundational postulate (Postulate
I) of CWM, serving as the empirical refutation of local realism.
(Formal Framework for a Non-Local Frequency-Based Reality,
Postulate I, Section 1.1;
Physical Interpretation of Mass and Spacetime, Section
1)
Big Bang: The prevailing cosmological model for the
universe’s earliest known periods. In this framework, it is
reinterpreted as a primordial resonance and rapid expansion of the
universal frequency medium.
Big Crunch: A hypothetical future scenario where
gravity halts the universe’s expansion, causing collapse into a
high-density, high-temperature state. In this framework, it is
reinterpreted as a recoherence of the frequency medium.
Big Freeze: A hypothetical future scenario where
the universe’s indefinite expansion leads to maximal frequency
decoherence and dissipation of all patterns.
Binding Problem: The question in neuroscience and
philosophy of mind of how disparate sensory information processed in
different brain parts is unified into a single, coherent conscious
experience.
Bio-resonance: The concept that biological systems
exhibit specific resonant frequencies, which can be targeted for
non-invasive diagnostics and therapies by manipulating frequency
imbalances.
Biophotons: Ultra-weak photon emissions from all
living systems, theorized by some to form a coherent field that could be
the physical substrate of conscious awareness. CWM re-interprets these
as biological manifestations of the universal medium, supporting
emergent biological coherence.
(Treatise on Clocks and Taxonomies, Section 29.2)
Black Hole: A region of spacetime where gravity is
so strong that nothing, not even light, can escape. In CWM, a black hole
is interpreted as an extreme concentration or recoherence of fundamental
frequency patterns within the universal medium, leading to a breakdown
of normal emergent spacetime properties and serving as a key probe for
the medium’s behavior. (Theory of General Mechanics, Part
IV)
Black Swan (Observation): An event or phenomenon
that lies outside the realm of normal expectations, because nothing in
past experience or the prevailing theory would have predicted its
possibility. Such observations challenge the very foundations of the
existing paradigm. CWM frames modern anomalies as such critical
disconfirmations. (Theory of General Mechanics, Part
I)
Bohmian Mechanics (Pilot-Wave Theory): A
deterministic, realist interpretation of quantum mechanics that posits
definite particle trajectories guided by a physical pilot-wave. CWM
adopts a similar ontology (physical wave inherently guiding
particle-like concentrations) and integrates non-locality, aiming for
greater relativistic consistency. CWM positions itself as overcoming
Bohmian mechanics’ historical weaknesses.
(Critiquing Quantum Indeterminism's Foundations, Section 5;
Outline Chapter 1.4.2, 7.3.1, 6.1)
Born Rule: The fundamental postulate in standard
quantum mechanics defining the probability of obtaining a specific
measurement outcome (\(P=|\psi|^2\)).
CWM explicitly seeks to derive the Born Rule from the
energy-density principles of wave mechanics, rather than postulating it
axiomatically. This moves it from an axiom to an emergent theorem.
(Critiquing Quantum Indeterminism's Foundations, Section 2;
Outline Chapter 3.2.2, 6.3)
Boson: A type of fundamental particle that mediates
forces (e.g., photon, gluon, W/Z boson). In CWM, bosons are specific
frequency patterns that facilitate interactions and energy exchange
between other frequency patterns, allowing for collective coherent
states within the universal medium.
(Theory of General Mechanics, Part III)
Bose-Einstein Condensates: A state of matter where
a dilute gas of bosons, cooled to near absolute zero, causes a large
fraction of atoms to occupy the lowest quantum state, exhibiting
coherent matter-wave properties. In this framework, it represents a
macroscopic, highly coherent state of specific frequency patterns.
Bootstrap Mechanism: A self-consistency principle
in physics and statistics where a system’s fundamental laws or
properties are determined by internal consistency requirements, rather
than external parameters. In General Mechanics, it suggests the
universe’s fundamental constants might be fixed by its own
self-consistency axiom.
Boundary Conditions: The specific physical
constraints or values defining a system’s or region’s limits. In CWM,
boundary conditions are crucial for understanding causality, stability,
and scale hierarchy, particularly in the formation of stable waveforms
(e.g., defining atomic orbitals as standing waves) and in macroscopic
phenomena. (Treatise on Clocks and Taxonomies, Section
33.1)
Casimir Effect: A small attractive force between
two close, parallel, uncharged conducting plates in a vacuum, providing
empirical evidence for quantum vacuum fluctuations. In CWM, it is a
direct consequence of the universal medium’s resonant modes being
modified by boundaries, confirming the medium’s physical reality and
dynamic nature.
(Physical Interpretation of Mass and Spacetime, Section
6)
Causal Emergence: The phenomenon where a causal
relationship may be stronger, more deterministic, or more informative at
a macroscopic level than at the microscopic. In CWM, it describes how
robust causal laws (e.g., classical mechanics) emerge from the Universal
Relational Graph (URG)’s underlying probabilistic (or computationally
irreducible) dynamics. (Theory of General Mechanics, Part
IV)
Causal Graph: In the Wolfram Physics Project (and
integrated into GM), the network of causal relationships between update
events in a hypergraph, representing the flow of time and information.
It defines the temporal evolution of the URG.
(Theory of General Mechanics, Part IV)
Causal Set Theory (CST): A theory of quantum
gravity that posits spacetime’s fundamental structure as a discrete,
partially ordered set of “spacetime atoms” or events, where all
geometric notions are emergent. Used as a comparative formalism for the
URG in CWM. (Theory of General Mechanics, Section
30.1)
Cellular Automata: Discrete computational models
where space and time are discrete, and local interactions, guided by
simple rules, can generate unbounded complexity. In CWM, they provide
mathematical proof that macroscopic order can emerge from an underlying,
discrete dynamic medium, supporting a process-based, bottom-up model of
reality. (Theory of General Mechanics, Section 22.6)
**CEMI Field Theory (Conscious Electromagnetic Information
Field Theory):** A theory proposing that consciousness arises
from the brain’s global electromagnetic field, which integrates neuronal
information into a single, conscious whole.
Chaitin’s Incompleteness Theorem: A result in
algorithmic information theory relevant to the fundamental limits of
what can be computed or formally proven about the complexity of objects
from within a consistent axiomatic system (like the URG).
(Theory of General Mechanics, Part II)
Chaos Theory: A field of mathematics and physics
that studies complex, dynamic systems highly sensitive to initial
conditions, often leading to seemingly random or unpredictable outcomes.
It is essential for modeling complex, nonlinear frequency patterns.
Charge (Electric): A fundamental property of matter
that determines its electromagnetic interactions. In a frequency
universe, electric charge is interpreted as a specific, stable
characteristic of a frequency pattern that dictates its interaction
strength with electromagnetic frequency patterns.
Chronotherapeutics: Treatments (e.g., medical
interventions) timed to align with the body’s natural rhythms to
maximize efficacy and minimize toxicity. This is a direct medical
application predicted by CWM’s redefinition of disease as “systemic
dissonance.” (Treatise on Clocks and Taxonomies, Section
6.1)
Church-Rosser Property: A property of a rewriting
system (or lambda calculus) where if an expression can be rewritten in
two different ways, both resulting expressions can be further rewritten
to a common form. A system with this property is “confluent.” General
Mechanics’ rewriting system is hypothesized to be non-confluent.
Church-Turing Thesis: The hypothesis that any
function computable by an algorithm can be computed by a Turing machine.
In General Mechanics, the universe is considered fundamentally
computational, aligning with the strong form of this thesis and
suggesting reality itself is a form of computation.
Classical Mechanics: The branch of physics that
describes the motion of macroscopic objects. In CWM, classical mechanics
is an emergent approximation of the underlying continuous wave
dynamics at large scales and low energies, where individual wave
phenomena average out. (Theory of General Mechanics,
Introduction)
Coherence (Wave): The property of waves that
enables stationary (or nearly stationary) interference patterns. In CWM,
it refers to the stable, predictable phase relationship between
different frequency patterns, essential for pattern formation,
information processing, and the emergence of complex phenomena like
consciousness. (Treatise on Clocks and Taxonomies, Chapter
2)
Coding Theorem Method: A method based on
algorithmic probability that provides an upper bound approximation for
Kolmogorov complexity by observing the output frequencies of all
possible programs run on a universal Turing machine.
Collective Excitations in Condensed Matter:
Emergent, collective quasiparticles (e.g., magnons, phonons, excitons)
arising from strong interactions between atoms in solid-state materials,
each with its own resonant behavior, offering a robust basis for
encoding quantum information in QRC.
Color Charge: In quantum chromodynamics (QCD), a
property of quarks and gluons that is analogous to electric charge but
is responsible for the strong nuclear force. There are three “colors”
(red, green, blue) and three “anti-colors.” In a frequency universe,
color charge would be interpreted as a specific, quantized phase or
resonant property of quark and gluon frequency patterns that dictates
their strong interactions.
Complexity Tax: A central concept in this paper,
representing the measurable burden of abstraction, lack of physical
intuition, and increased mathematical complexity (the proliferation of
“epicycles”) incurred for rigidly clinging to flawed foundational axioms
in physics. (Thesis Statement, and throughout)
Computational Amplitude: In General Mechanics’
sum-over-histories formulation, a complex-valued probability amplitude
describing the transition from an initial to a final Universal
Relational Graph (URG) state. It quantifies the strength of a
computational pathway. (Theory of General Mechanics, Part
II)
Computational Irreducibility: A property of
computational processes where the only way to determine their future
state is to run the computation itself, as no computational shortcut or
simpler algorithm exists to predict their evolution. In General
Mechanics, it provides a philosophical basis for the arrow of time and
reality’s inexhaustible complexity.
(Theory of General Mechanics, Part II)
Computational Substrate: The physical medium or
underlying system upon which computation is performed. In CWM, the
universal medium is posited as the ultimate computational substrate,
constantly processing information.
(Theory of General Mechanics, Part III)
Computational: In General Mechanics, the universe
is fundamentally a computational process, meaning its evolution involves
continuous processing and updating of its internal state, akin to an
algorithm executing its rules.
(Theory of General Mechanics, Part III)
Computability Limits: The inherent boundaries on
what can be computed or formally proven within a given computational
system. In General Mechanics, the system’s computational power implies
it is subject to Gödel’s incompleteness theorems and the uncomputability
of Kolmogorov complexity for certain questions about its total state or
future evolution. (Theory of General Mechanics, Part
II)
Compton Frequency (\(\omega_C\)) The intrinsic
oscillation rate of a stable waveform, directly related to its invariant
inertial mass via the mass-frequency identity (\(m=\omega\)). It is the fundamental “clock”
of the particle-waveform.
(Natural Units: Universe's Hidden Code, Section 4.1;
Formal Framework for a Non-Local Frequency-Based Reality,
Section 2.2)
Compton Wavelength (\(\lambda_C\)) The characteristic
spatial extent of a particle’s intrinsic oscillation, derived as the
inverse of its mass in natural units (\(\lambda_C = 1/m\)).
(Natural Units: Universe's Hidden Code, Section 2.5.1)
Confluence (Rewriting System): A property of a
rewriting system where if an expression can be rewritten in two
different ways, both resulting expressions can be further rewritten to a
common form. A system with this property is “confluent.” General
Mechanics’ rewriting system is hypothesized to be non-confluent.
Consciousness: In Continuous Wave Mechanics, a
macroscopic physical phenomenon corresponding to the formation of a
topologically complex, self-sustaining, and highly integrated resonant
pattern within the fundamental dynamic medium. The subjective quality of
experience (“qualia”) is the intrinsic, first-person informational state
of this coherent, high-resonance pattern.
(Treatise on Clocks and Taxonomies, Section 28)
Conservation Laws: Fundamental principles in
physics stating that certain physical properties (e.g., energy,
momentum, charge) remain constant in an isolated system. In a frequency
universe, these laws arise from underlying symmetries and regularities
in frequency pattern interactions and transformations.
Consilience: The principle that knowledge is
unified and that evidence from disparate, independent fields can
converge to support a single, powerful explanation.
Conceptual Metaphor Theory: A theory in cognitive
linguistics (Lakoff & Johnson, 1980) stating that abstract concepts
are understood by mapping them onto more concrete, familiar domains
rooted in embodied experience. Essential for understanding the cognitive
architecture of scientific language and its potential biases.
(Treatise on Clocks and Taxonomies, Section 33.1)
Continuous Manifold: A mathematical space that is
locally Euclidean (resembles flat space) but can be globally curved. In
General Mechanics, a continuous manifold (like spacetime) is
hypothesized to emerge as a macroscopic approximation from the discrete
Universal Relational Graph (URG).
Continuous Symmetries: Symmetries that involve
transformations that can vary continuously (e.g., rotations by any
angle). In General Mechanics, these are hypothesized to emerge as
approximate statistical properties of the discrete URG at large scales,
potentially forming discrete subgroups (lattices) of continuous Lie
groups.
Continuous Wave Mechanics (CWM): The proposed
unified framework, a subset of the broader General Mechanics (GM)
ontology, explicitly based on continuous wave dynamics in a universal
medium. It seeks to replace the paradoxical postulates of QM and GR with
a coherent, realist model built on principles of wave propagation,
resonance, and interaction. (Term adopted in Abstract and throughout
Outline).
Copenhagen Interpretation: The most widely accepted
interpretation of quantum mechanics, primarily formulated by Niels Bohr
and Werner Heisenberg. It posits that quantum systems exist in a
superposition of states until measured, at which point the wave function
“collapses” into a single definite state. It emphasizes the role of the
observer and the probabilistic nature of quantum outcomes. General
Mechanics offers an alternative reinterpretation of the measurement
problem.
Core Ontological Identity: The foundational
mathematical identity in General Mechanics, \(\boxed{m = E = \omega}\), asserting that a
particle’s mass, rest energy, and intrinsic angular frequency are
fundamentally the same entity.
Cosmic Anisotropy: Any deviation from the
statistical uniformity of the universe in different directions. CWM
predicts such anisotropy must exist at a subtle level as a signature of
the dynamic medium constituting a preferred reference frame.
(Formal Framework for a Non-Local Frequency-Based Reality,
Section 18.1)
Cosmic Inflation: A hypothetical period of
extremely rapid expansion in the early universe, posited to solve
cosmological problems (horizon, flatness). CWM suggests alternative
explanations for these problems without requiring inflation.
(Theory of General Mechanics, Introduction)
Cosmic Microwave Background (CMB): The faint
afterglow of the Big Bang, uniform thermal radiation filling the
universe, providing a snapshot of the early cosmos. In CWM, it is
reinterpreted as a relic of a past, higher-frequency resonant state of
the universal medium. (Theory of General Mechanics, Part
I)
Cosmic Redshift: The phenomenon where light from
distant galaxies shifts toward longer (redder) wavelengths due to the
universe’s expansion. It is interpreted as the ongoing ‘tuning down’ or
stretching of fundamental frequencies.
Cosmic Web: The large-scale structure of the
universe, consisting of filaments and voids where galaxies are
clustered. In a frequency universe, this could reflect large-scale
patterns of coherence and density variations within the universal
frequency medium.
Cosmological Constant (\(\Lambda\)) A term in Einstein’s
field equations representing the vacuum energy density, related to the
observed accelerated expansion of the universe (Dark Energy). In CWM, it
relates to the intrinsic, pervasive background oscillations or frequency
landscape of the universal medium. The “Cosmological Constant Problem”
(vacuum catastrophe) is a major anomaly addressed by CWM.
(Physical Interpretation of Mass and Spacetime, Section
3)
Cosmological Constant Problem: The monumental
discrepancy between the theoretical vacuum energy density predicted by
quantum field theory and the observed value of Dark Energy, often called
the “vacuum catastrophe.”
Coupling Constants: Dimensionless numbers that
determine the strength of fundamental forces. In CWM, they are
interpreted as emergent properties reflecting the universal
medium’s dynamic responsiveness to specific frequency pattern
interactions. (Theory of General Mechanics, Part III)
CP Violation: A phenomenon in particle physics
where the laws of physics are not perfectly mirror-symmetric under
combined charge conjugation (C) and parity (P) transformations. CWM
integrates this as a fundamental, possibly intrinsic, asymmetry in the
universal medium’s dynamic processing rules.
(Theory of General Mechanics, Section 22.2)
Curvature of Spacetime: In General Relativity, the
geometric property of spacetime that is responsible for the phenomenon
of gravity. In CWM, this is explicitly rejected as fundamental; it is
considered an emergent macroscopic approximation arising from
the collective, statistical dynamics of frequency patterns in the
universal medium. (Theory of General Mechanics, Part
IV)
d-regular: A property of a graph or hypergraph
where every vertex has the same degree (number of incident
edges/hyperedges). This implies a uniform connectivity structure in the
URG.
Dangling Condition: A constraint in graph rewriting
formalisms (specifically the Double-Pushout approach) that prevents the
deletion of a vertex if it would result in edges (or hyperedges)
becoming unattached or “dangling.”
Dark Energy: A hypothetical form of energy proposed
to explain the observed accelerating expansion of the universe. In a
frequency universe, it could be reinterpreted as a pervasive,
low-frequency background oscillation or a subtle, expansive property of
the quantum vacuum’s frequency medium itself, driving further
decoherence and ‘tuning down’.
Dark Matter: A hypothetical form of matter proposed
to explain anomalies in observed gravitational effects, which does not
interact with light or other electromagnetic radiation. In a frequency
universe, it could represent coherent frequency patterns that do not
resonate or couple with observable baryonic matter frequencies, or exist
at a different ‘harmonic’ not directly detectable by current means.
Dark Sector: The collective term for Dark Matter
and Dark Energy, representing approximately 95% of the universe’s energy
density, whose nature remains unknown in the Standard Model.
De Broglie Wavelength: The wavelength associated
with a particle, demonstrating wave-particle duality. In a frequency
universe, it represents the spatial extent of a particle’s intrinsic
frequency pattern.
Decoherence: A process in quantum mechanics where a
quantum system loses its “quantumness” (e.g., superposition,
entanglement) through interaction with its surrounding environment. In
CWM, it is interpreted as the dissipation or loss of stable phase
relationships in a frequency pattern due to interaction with the noisy
or incoherent environment. CWM treats decoherence as a natural and
pervasive process within the continuous universal medium,
leading to the emergence of classicality.
(Theory of General Mechanics, Part IV)
Degeneracy (Quantum): When two or more distinct
quantum states of a system have the same energy level. In CWM, this
implies that multiple distinct frequency patterns can exist within the
universal medium with equivalent energy content.
(Theory of General Mechanics, Part II)
Deterministic: A property of a system where its
future state is uniquely determined by its present state. CWM argues for
an underlying deterministic reality of the universal medium’s dynamics,
despite apparent emergent randomness for local observers.
(Critiquing Quantum Indeterminism's Foundations, Table
1)
Diffraction: The phenomenon that occurs when waves
encounter an obstacle or aperture, causing them to bend around it and
spread out. In CWM, it demonstrates the wave-like nature of fundamental
patterns and how they interact with boundaries in the universal medium.
(Theory of General Mechanics, Part IV)
Digital Physics: A speculative theoretical
perspective that posits the universe is fundamentally a discrete
computational system, or the output of a computer program. CWM aligns
with this by proposing a computational ontology of reality, though its
underlying physical medium is continuous.
(Theory of General Mechanics, Part I)
Digital-to-Analog Conversion (DAC): The process of
converting discrete digital signals into continuous analog signals. In
QRC, this relates to how a user’s digital input could be translated into
specific frequency patterns to initiate computation.
Dimensional Reduction: In natural unit systems
(\(c=\hbar=1\)), all physical
dimensions can often be expressed solely in terms of a single base unit
(e.g., Mass). CWM leverages this to show deep coherence and ontological
equivalence between seemingly disparate physical quantities.
(Natural Units: Universe's Hidden Code, Section 2.5.2)
Dirac Equation: The relativistic wave equation for
the electron. Its prediction of Zitterbewegung (Schrödinger, 1930) is a
key piece of empirical and theoretical evidence supporting the
mass-frequency identity in CWM.
(Physical Interpretation of Mass and Spacetime, Section
4)
Discrete Lens: A concept introduced by this author
that the world appears quantized and discrete due to the
limitations and intrinsic nature of our observational methods,
conceptual tools, and mathematical models (e.g., combinatorial
counting), even if the underlying physical reality is continuous.
(Discrete Lens document itself; Outline Chapter 6.3)
Discrete Metric Spaces: A set of points where
distances between them are defined, but the points themselves are
discrete rather than continuous. In CWM, the large-scale spacetime
continuum would emerge as a statistical approximation from an
underlying discrete metric space defined on the Universal Relational
Graph (URG). (Theory of General Mechanics, Part IV)
Discrete Subgroup (Lattice): A subgroup of a
continuous Lie group where the elements are separated by discrete
distances. In CWM, approximate continuous symmetries at large scales may
statistically manifest as invariances under such discrete subgroups of
emergent symmetries. (Theory of General Mechanics, Part
IV)
Dispersion: The phenomenon where a wave’s phase
velocity depends on its frequency, causing different frequency
components of a signal to travel at different speeds and spread out. In
a frequency universe, it describes how frequency patterns can spread or
deform.
Distributed Computing: A paradigm where
computational tasks are spread across multiple interconnected computers.
In Quantum Resonance Computing (QRC)—a technology enabled by CWM—this
concept extends to leveraging widespread, naturally occurring frequency
patterns and resonances across the continuous universal medium for
large-scale computation. (Theory of General Mechanics, Part
VII)
Doppler Effect: The change in frequency or
wavelength of a wave in relation to an observer moving relative to the
wave source. In CWM, it applies to how observed frequencies of patterns
(like light from distant galaxies) are shifted due to relative motion,
contributing to phenomena like cosmic redshift.
(Theory of General Mechanics, Part II)
Double-Pushout (DPO) / Single-Pushout (SPO): Two
primary algebraic formalisms for defining graph (or hypergraph)
rewriting rules. DPO is more explicit and conservative regarding element
creation/deletion, while SPO is simpler and more permissive. General
Mechanics’ Universal Relational Graph (URG) dynamics would be defined by
one of these approaches.
Downward Causation: A concept in emergent systems
where higher-level, emergent macroscopic structures or laws exert a
causal influence on the lower-level microscopic dynamics from which they
emerged. In CWM, emergent geometric or causal properties of spacetime
could influence the URG’s microscopic evolution.
(Theory of General Mechanics, Part IV)
Dual Response Principle: In CWM’s model of gravity,
a foundational postulate stating that the presence of localized energy
(mass) symmetrically alters both the effective permittivity and
permeability of the universal medium (quantum vacuum). This leads to a
dimensionless coupling constant of 2 in the derived refractive index.
(Physical Interpretation of Mass and Spacetime, Section
6)
Duality (Wave-Particle): The concept in standard
Quantum Mechanics that every particle or quantum entity may be described
as existing in two contradictory states—either as a particle or as a
wave. CWM rigorously resolves this by stating that the fundamental
entity is always a waveform, with “particle” behavior being an
emergent, localized aspect of that waveform’s interaction.
(Critiquing Quantum Indeterminism's Foundations, Section
1.3; Outline Chapter 4.1, 6.1)
Effective Field Theories: Theoretical frameworks in
mainstream physics where fundamental constants and field properties are
seen as emergent parameters from a deeper, more fundamental theory,
valid within specific energy scales. CWM leverages this by
reinterpreting Standard Model concepts as emergent from the universal
medium. (Physical Interpretation of Mass and Spacetime,
Section 3.2)
Effective Information (EI): A measure of the
strength of a causal relationship in complex systems, quantifying how
much information an intervention on a system’s past state provides about
its future state. Used in General Mechanics to formally define and
quantify causal emergence. (Theory of General Mechanics,
Part IV)
Effective Photon Rest Mass: A theoretical concept
where photons, typically massless, acquire a tiny effective rest mass
due to interactions with quantum fields or spacetime itself. Some
theories propose discrepancies in this value could explain the Hubble
Tension.
Efficiency (Autaxic Trilemma): One of the three
core, competing imperatives of the Autaxic Trilemma. It represents the
tendency to optimize processing, minimize computational cost, and find
the most parsimonious and coherent solutions for the universe’s
self-organization. (Theory of General Mechanics, Section
16; Natural Units: Universe's Hidden Code, Section
7.1)
Eigenstate: A state of a quantum system that, when
a specific observable is measured, yields a definite, consistent value
(the eigenvalue) for that observable. In CWM, an eigenstate represents a
stable, well-defined resonant frequency pattern of a waveform within the
universal medium.
(Critiquing Quantum Discreteness Foundations, Section
2.1)
Eigenvalue: The definite numerical value obtained
when a physical quantity (observable) is measured on a system in an
eigenstate. In CWM, eigenvalues correspond to the specific, quantized
properties (e.g., energy, mass, momentum) associated with stable
frequency patterns of waveforms.
(Critiquing Quantum Discreteness Foundations, Section
2.1)
Einstein’s Field Equations (EFE): The set of ten
non-linear partial differential equations in General Relativity that
describe how matter and energy (represented by the stress-energy tensor)
determine the curvature of spacetime, and how this curvature, in turn,
dictates the motion of matter and energy. In CWM, these equations are
considered a macroscopic approximation of the underlying
Universal Relational Graph (URG) dynamics.
(Theory of General Mechanics, Part II;
Physical Interpretation of Mass and Spacetime, Section
4.3)
Elasticity: An intrinsic, dynamic property of the
universal medium, relevant for how it sustains, propagates, and responds
to various forms of wave phenomena. It contributes to its effective
tension and density. (Outline Chapter 4.1.1)
Electric Charge: A fundamental property of matter
that determines its electromagnetic interactions. In CWM, electric
charge is interpreted not as an abstract intrinsic property but as a
specific, stable characteristic (e.g., a topological property or unique
wave symmetry) of a frequency pattern that dictates its interaction
strength with other electromagnetic frequency patterns in the medium.
(Theory of General Mechanics, Part II)
Electricity: The set of physical phenomena
associated with the presence and motion of electric charge. In CWM,
electricity is understood as the macroscopic manifestation of the
dynamic interactions and propagation of charged frequency patterns
within the universal medium. (Theory of General Mechanics,
Part III)
Electromagnetic Spectrum: The range of all possible
frequencies of electromagnetic radiation, from radio waves to gamma
rays. In CWM, each part of the spectrum represents different vibrational
modes and energy levels supported by the universal medium.
(Theory of General Mechanics, Part II)
Electromagnetic Wave: A wave composed of
oscillating electric and magnetic fields, propagating through space. In
CWM, it is a self-sustaining frequency pattern of the universal medium
that carries energy and information.
(Theory of General Mechanics, Part II)
Electron: A stable, negatively charged elementary
particle, a lepton. In CWM, an electron is specifically interpreted as a
unique, stable resonant frequency pattern or three-dimensional standing
wave (soliton-like) of the universal medium, characterized by its
intrinsic frequency (mass), charge, and spin.
(Theory of General Mechanics, Part III)
Electroweak Interaction: The unified description of
the electromagnetic and weak nuclear forces. In CWM, it describes the
specific frequency coupling mechanisms governing various particle decays
and electromagnetic phenomena arising from interactions within the
universal medium. (Theory of General Mechanics, Part
III)
Emergence: The process where complex patterns,
structures, and properties arise spontaneously from simpler interactions
or components without explicit programming or central control. In CWM,
all observed physical phenomena, including particles, forces, and
spacetime, emerge from the dynamic interactions and coherent
self-organization of fundamental frequency patterns within the universal
medium. (Theory of General Mechanics, Part IV)
Emergent Gauge Symmetries: Symmetries (which
typically imply conservation laws) that arise from redundancies in the
description of a system’s state, leading to internal, force-like
interactions. In CWM, these could manifest as emergent internal
symmetries of the URG’s dynamics.
(Theory of General Mechanics, Part IV)
Emergent Gravity: A research program that seeks to
derive gravity from more fundamental, non-gravitational principles,
often related to thermodynamics, information, and entanglement. CWM
explicitly positions itself within this paradigm, deriving gravity from
universal medium dynamics.
(Physical Interpretation of Mass and Spacetime, Section
20)
Emergent Properties: Macroscopic properties or
phenomena that arise from the collective behavior and interactions of
simpler, underlying components, but are not properties of the individual
components themselves. In CWM, these include spacetime, classical
objects, and fundamental forces.
(Theory of General Mechanics, Part IV)
Energy: In CWM, energy is ontologically equivalent
to mass and intrinsic angular frequency (\(E=m=\omega\)), representing the dynamic
activity or vibrational content of a frequency pattern within the
universal medium. It is the capacity for work, expressed as vibration.
(Natural Units: Universe's Hidden Code, Section 3.2;
Formal Framework for a Non-Local Frequency-Based Reality,
Section 2.1)
Entangled (Quantum): A phenomenon where two or more
quantum particles become linked such that their quantum states are
interdependent, regardless of the distance separating them. In CWM, it
is interpreted as instantaneous phase-coupling or resonant alignment of
interconnected frequency patterns within the universal medium.
(Critiquing Quantum Indeterminism's Foundations, Section
3.1)
Entropic Gravity: A theory proposing that gravity
arises from changes in the information associated with the positions of
material bodies, linking it to entropy and the Holographic Principle.
CWM provides a more mechanistic grounding for this concept through its
dynamic medium ontology. (Theory of General Mechanics, Part
IV)
Entropy: A measure of disorder or randomness in a
system. In CWM, it represents the degree of incoherence in a system’s
frequency patterns, or the thermalization of coherent information into a
less ordered, more chaotic state within the universal medium.
(Theory of General Mechanics, Part II)
Epistemic Arrogance: An excessive and unfounded
certainty in one’s own knowledge and ability to know, often coupled with
the unjustified dismissal of dissenting views. It is frequently linked
to anthropocentrism. CWM challenges this in its philosophical
implications, advocating for intellectual humility.
(Treatise on Clocks and Taxonomies, Section 33.3)
Epistemological Limit: A boundary of our current
scientific knowledge or theoretical models, as opposed to an ontological
truth (a fundamental, intrinsic feature) about reality itself. CWM
rigorously identifies the Planck scale as an *epistemological
limit*, where current theories break down, rather than an
ontological “cosmic pixel.”
(Physical Interpretation of Mass and Spacetime, Section
3.1)
Epistemology: The philosophical study of knowledge,
including its nature, scope, acquisition, and inherent limits. In
General Mechanics, epistemology critically examines the boundaries of
human understanding and scientific models.
(Treatise on Clocks and Taxonomies, Part I)
Epigenetic Reprogramming: A biological process
(e.g., using Yamanaka factors) that “reboots” aged cells to a more
youthful epigenetic state, effectively rewinding their biological clock.
CWM sees this as actively modifying a system’s intrinsic temporal
signature. (Treatise on Clocks and Taxonomies, Section
5.3)
Error Correction (QRC): In Quantum Resonance
Computing (QRC), the process of maintaining the stability and coherence
of critical frequency patterns against environmental noise or unwanted
interactions. CWM relies on inherent self-organizing properties of
resonant systems to achieve intrinsic robustness.
(Theory of General Mechanics, Part VII)
Evolutionary Principle: The derived law in General
Mechanics, \(\boxed{\frac{d(m_{total}^2)}{dt}
\ge 0}\), mathematically formulating the arrow of time as the
non-decreasing evolution of the square of the system’s total mass/energy
variable ‘m’. It connects thermodynamics to the fundamental dynamics of
the universal medium. (Theory of General Mechanics, Section
12)
Existence (Law of): The derived law in General
Mechanics, \(\boxed{\textbf{EXISTENCE} \equiv
\textbf{SELF-CONSISTENCY}}\), which identifies the mathematical
property of self-consistency with the fundamental physical property of
existence. It implies that a system can only exist if its dynamics are
self-consistent within the URG framework.
(Theory of General Mechanics, Section 13)
Excitons: Bound electron-hole pairs, a type of
emergent, collective excitation in condensed matter. CWM sees these as
specific localized waveforms or patterns of coherence.
(Discrete Lens, Section 4.3)
Extended Uncertainty Principle (EUP): A
modification of the Heisenberg Uncertainty Principle that suggests a
minimum measurable length, often arising in speculative quantum gravity
theories. Its predictions are relevant to reconciling quantum mechanics
and general relativity, with relevance to the Hubble Tension.
(Theory of General Mechanics, Part I)
Falsifiability: The capacity for a statement,
theory, or hypothesis to be proven wrong by observation or experiment.
CWM explicitly emphasizes its own falsifiability through specific,
testable predictions.
(Critiquing Quantum Indeterminism's Foundations, Section
4)
Fenna-Matthews-Olson (FMO) Complex: A
photosynthetic pigment-protein complex found in green sulfur bacteria
that has been experimentally shown to exhibit sustained quantum
coherence during energy transfer. This serves as “black swan” evidence
for CWM’s principles, indicating that life can harness inherent resonant
properties. (Physical Interpretation of Mass and Spacetime,
Section 26.1)
Fermion: A type of fundamental particle that obeys
the Pauli exclusion principle (no two identical fermions can occupy the
same quantum state). In CWM, fermions are distinct, stable frequency
patterns that resist co-localization due to their inherent phase and
spatial properties, preventing identical patterns from occupying the
exact same resonant mode within the universal medium.
(Theory of General Mechanics, Part III)
Field (Physics): In CWM, the universe’s fundamental
constituents are continuous, fluid-like quantum fields that permeate all
of spacetime. CWM posits a single, unified “meta-field” (the universal
medium, or URG) as the ultimate source from which all other distinct
fields (e.g., electromagnetic, electron, Higgs) emerge as dynamic
patterns. (Theory of General Mechanics, Section 14)
Fine-Structure Constant (\(\alpha\)): A fundamental physical
constant that quantifies the strength of the electromagnetic interaction
between elementary charged particles. In CWM, it is interpreted as an
emergent property reflecting how easily the universal medium
transmits and sustains electromagnetic frequency patterns. Its precise
derivation from fundamental medium properties is a key CWM goal.
(Formal Framework for a Non-Local Frequency-Based Reality,
Section 3.2; Principle of Harmonic Closure, Section 4)
Fine-Tuning Problem: The observation that the
fundamental constants and initial conditions of the universe appear to
be precisely adjusted for the existence of life, leading to questions
about their origin. CWM offers a non-anthropic solution through the
Autaxys principle, where constants are self-tuned.
(Theory of General Mechanics, Section 16)
Flavor (Quantum): A quantum number distinguishing
types of quarks and leptons (e.g., up, down, strange, charm, top, bottom
quarks; electron, muon, tau leptons). In CWM, flavor is interpreted as a
distinct, quantized resonant mode or internal frequency configuration of
a fundamental frequency pattern.
(Theory of General Mechanics, Part II)
Flatness Problem: A cosmological problem in the Big
Bang model concerning why the universe’s spatial curvature is observed
to be extremely close to zero (spatially flat). VSL cosmologies (aligned
with CWM) offered solutions to this problem.
(Physical Interpretation of Mass and Spacetime, Section
24.1)
Floquet Theory: A mathematical theory describing
the behavior of systems under periodic driving, essential for
understanding the quasi-energy states of parametrically driven quantum
oscillators. It is critical for QRC.
(Theory of General Mechanics, Part VII)
Force: In CWM, fundamental forces are *emergent
phenomena* arising from the interactions and symmetries of frequency
patterns within the universal medium, or from the dynamic properties of
the URG, rather than being mediated by abstract force carriers.
(Theory of General Mechanics, Section 11 and 15.1)
**Formal Framework for a Non-Local Frequency-Based
Reality:** A foundational document outlining CWM’s axiomatic
base, including the primacy of non-locality, the invariance of energy
relations, and the principle of natural units.
Formalism for Resonant Computation: A rigorous
mathematical language needed to describe computation in driven, resonant
quantum systems within the QRC framework.
Fourier Analysis: A mathematical method for
decomposing a complex waveform into a sum of simpler sine and cosine
waves. In CWM, it is a crucial tool to analyze and synthesize frequency
patterns within the universal medium.
(Theory of General Mechanics, Part III)
Frame-Dragging: An effect in GR where rotating
masses drag spacetime around them. In CWM, this empirically confirms
Mach’s Principle, indicating inertia is a relational effect mediated by
the dynamic universal medium. (Theory of General Mechanics,
Section 17.2)
Free Energy Principle (FEP): A principle (Friston,
2010) stating that any self-organizing system must act to minimize its
“surprise” or variational free energy, by creating a predictive model of
its world. CWM incorporates FEP as a high-level manifestation of
Autaxys. (Theory of General Mechanics, Section 16;
Treatise on Clocks and Taxonomies, Section 28.1)
Frequency and Mode Encoding: A method in QRC where
information is encoded digitally by the presence or absence of
excitation in specific resonant modes of a quantum resonator.
Frequency Domain: A way of representing signals or
functions as a function of frequency, rather than as a function of time.
Essential for analyzing and manipulating frequency patterns in CWM.
(Theory of General Mechanics, Part II)
Frequency Impedance: An intrinsic property of the
universal medium that dictates how readily energy is exchanged and how
stable frequency patterns (like particles) propagate and form within it.
It is analogous to electrical impedance or a material’s refractive
index. (Outline Chapter 4.1.1)
Frequency Microscopy: A hypothetical advanced
sensing technology that detects unique frequency signatures to image
objects at subatomic scales or through obscuring media.
Frequency Printing: A hypothetical advanced QRC
application where complex frequency fields are precisely orchestrated
within a localized vacuum region to synthesize matter by forming and
stabilizing inherent frequency patterns.
Frequency-Based Ontology: A core tenet of General
Mechanics (and CWM) emphasizing that reality is fundamentally composed
of dynamic, frequency-based patterns and processes operating within an
active universal medium. (Theory of General Mechanics,
Introduction)
Fundamental Constants: In General Mechanics,
parameters (e.g., speed of light c, gravitational constant
G, Planck constant ħ) typically considered immutable,
are reinterpreted as emergent, macroscopic properties of the dynamic
medium, potentially varying subtly across cosmic epochs or regions.
Fundamental Force (Derived Law): The derived law in
General Mechanics, \(\boxed{F =
m_{char}^2}\), indicating that the strength of a fundamental
interaction at a given scale is the square of the variable ‘m’
(mass/frequency).
Gamma-Ray Bursts (GRBs): Extremely energetic
astrophysical phenomena. Used in experiments to detect minute,
energy-dependent variations in the speed of light, which CWM predicts.
(Outline Chapter 8.1)
Gate-Based Model: The dominant paradigm in quantum
computing, conceptually analogous to classical computing, representing
information in discrete quantum bits (qubits) and manipulating it
through a sequence of quantum gates. QRC offers an alternative to this
approach. (Theory of General Mechanics, Section 31.1)
Gauge Symmetry: A type of local symmetry in physics
where the laws remain unchanged under transformations that can vary
independently at each point in space. These symmetries are fundamental
to modern particle physics, giving rise to fundamental forces. In CWM
(within GM), emergent gauge symmetries could arise from redundancies in
the Universal Relational Graph (URG) state description, leading to
internal, force-like interactions.
(Theory of General Mechanics, Part IV)
Gauge Symmetry Group: A mathematical group (e.g.,
SU(3) × SU(2) × U(1) for the Standard Model) that describes the
fundamental symmetries underlying the interactions of particles and
forces. In CWM, this group emerges from the underlying dynamics of the
URG. (Theory of General Mechanics, Part IV)
Gauge Theory: A type of field theory in physics
where the Lagrangian is invariant under local transformations of certain
symmetry groups. It forms the mathematical foundation for the Standard
Model. In CWM, it describes the symmetries and conservation laws
governing transformations and interactions between frequency patterns.
(Theory of General Mechanics, Part IV)
General Mechanics (GM): The overarching
process-based, computational ontology of reality, which posits the
universe as a single, unified, and fundamentally computational process.
Continuous Wave Mechanics (CWM) is a specific framework (subset) within
GM. (Theory of General Mechanics, Introduction)
General Relativity (GR): Albert Einstein’s theory
of gravity, describing gravity as a curvature of spacetime caused by
mass and energy. In CWM, GR is explicitly critiqued for its complexity
and reliance on local realism; its predictions are reinterpreted as an
emergent, macroscopic approximation of the underlying URG
dynamics. (Physical Interpretation of Mass and Spacetime,
Part I; Outline Chapter 1.1.2.2, 3.4)
Generalized Coordinates: A set of independent
parameters that uniquely specify a system’s configuration. In General
Mechanics, these are the attributes on the Universal Relational Graph
(URG)’s vertices and hyperedges, serving as the variables upon which the
Autaxic Lagrangian operates.
Generative Cycle: The formalized process within
Autaxys operating on the Universal Relational Graph (URG), guided by the
Autaxic Lagrangian, leading to the emergence of increasingly complex and
stable structures throughout cosmic evolution.
(Theory of General Mechanics, Section 16)
Geometric Algebra (GA) / Clifford Algebra: A
mathematical framework that unifies scalars, vectors, and higher-grade
objects into single “multivector” entities, providing a compact language
for geometry and physics. General Mechanics may adopt it as the
Universal Relational Graph (URG)‘s fundamental algebraic structure.
Geometric Description of Gravity: The description
of gravity in General Relativity as spacetime curvature. CWM explicitly
rejects this as fundamental, proposing a simpler, refractive model based
on medium properties.
(Physical Interpretation of Mass and Spacetime, Section
1)
Global State Encoding: A method in Quantum
Resonance Computing (QRC) where the computational state is encoded in
the global pattern of excitations across the entire resonant spectrum of
a quantum resonator, rather than in isolated qubits.
(Theory of General Mechanics, Part VII)
Gluon: The elementary particle that mediates the
strong interaction between quarks. In CWM, a gluon is interpreted as a
specific resonant frequency pattern that mediates the powerful,
nonlinear interactions binding quark frequency patterns together within
the universal medium. (Theory of General Mechanics, Part
IV)
Gödel’s Incompleteness Theorems: Two theorems by
Kurt Gödel demonstrating inherent limitations of formal axiomatic
systems (e.g., that any consistent formal system powerful enough to
formalize arithmetic cannot prove its own consistency). In General
Mechanics, they imply fundamental limits to what can be known or proven
about the complexity of the universe’s computational states from within
its own framework, leading to fundamental undecidability for certain
questions. (Theory of General Mechanics, Part II)
Goldilocks Problem: In Quantum Resonance Computing
(QRC), the challenge of finding or engineering physical systems with an
optimal level of anharmonicity—sufficient for control and
addressability, but not so large as to cause uncontrollable decoherence.
(Treatise on Clocks and Taxonomies, Section 31.7)
Grand Synthesis: An alternative name for General
Mechanics, emphasizing its unifying nature.
Gravitational Constant (\(G\)) A fundamental physical
constant that determines the strength of the gravitational force. In
CWM, it is interpreted as an emergent parameter reflecting the
universal medium’s responsiveness to energy-momentum, rather than a
fundamental constant. Its value is derived within CWM.
(Physical Interpretation of Mass and Spacetime, Section
7)
Gravitational Limit (\(R_S\)) The derived law in GM,
\(\boxed{R_S = 2m}\), showing that the
geometric boundary associated with gravity (Schwarzschild Radius) is
directly proportional to the variable ‘m’ (mass/frequency). This limit
defines a critical density beyond which a region of the medium
collapses. (Theory of General Mechanics, Section 8)
Gravitational Lensing: The bending of light by
massive objects. In CWM, it is not interpreted as the bending of
spacetime geometry, but as analogous to the refraction of light through
a medium whose refractive index varies with the density of coherent
frequency patterns.
(Physical Interpretation of Mass and Spacetime, Section
7)
Gravitational Time Dilation: A phenomenon predicted
by relativity where time passes more slowly for an observer in a
stronger gravitational field. In CWM, it’s explained as a physical
slowing of atomic clocks’ intrinsic oscillation frequencies when
embedded in a denser medium, rather than spacetime itself warping.
(Physical Interpretation of Mass and Spacetime, Section 8;
Outline Chapter 5.3.3.1)
Graviton: A hypothetical elementary particle that
mediates the force of gravity in theories of quantum gravity. In CWM, a
graviton would be interpreted as a quantized, propagating frequency
pattern of the gravitational field, representing the universal medium’s
most fundamental vibrational mode.
(Theory of General Mechanics, Part IV)
Gravity: In General Mechanics, an emergent
phenomenon, not a fundamental force, but a dynamic consequence of how
mass-frequency patterns locally alter the surrounding medium’s
properties and processing dynamics, creating gradients that other
patterns follow. This differs from the conventional view of gravity as a
fundamental force or the curvature of spacetime itself.
Hadron: Any composite particle made of quarks held
together by the strong force (e.g., baryons and mesons). In CWM, hadrons
are interpreted as stable or unstable resonant standing wave patterns
formed by the confinement of quark frequency patterns within the
universal medium. (Theory of General Mechanics, Part
III)
Hamiltonian (Physics) A mathematical function or
operator representing a system’s total energy, used in quantum mechanics
to describe its evolution over time. In CWM, it describes the energy and
dynamics of interacting frequency patterns within the universal medium.
(Theory of General Mechanics, Part III)
Harmonic Attenuation Constant (\(c\)) The derivable geometric
normalization constant within the POHC Damping Function, \(D(\rho, x) = \exp[-c \cdot |t_n| \cdot
\log(x)]\). It is a dimensionless factor of order unity, arising
from the fundamental geometry of the NCG spectral triple rather than
being a free parameter.
Harmonic Resonance Computing (HRC): A new
computational paradigm proposed by General Mechanics, leveraging the
resonant nature of reality to encode information in stable, collective
resonant modes of an engineered physical medium. (POHC document)
Harmonic Zoom Algorithm: An algorithm derived from
the PPA within the POHC framework that operates by detecting
high-amplitude peaks in the vacuum’s harmonic spectrum to rapidly
identify prime factors, reducing computational complexity from
sub-exponential to polynomial. (POHC document)
Harmonics: Integer multiples of a fundamental
frequency. In CWM (a wave-based system), higher-order harmonics
represent more complex or higher-energy vibrational modes of a
fundamental pattern. (Treatise on Clocks and Taxonomies,
Chapter 2)
Health (in CWM) A state of multi-level resonant
coherence within a nested biological system. Disease is understood as
systemic dissonance, a disruption in this harmony.
(Treatise on Clocks and Taxonomies, Section 6.1)
Heat: Energy transferred from one system to another
as a result of a temperature difference. In a frequency universe, heat
transfer involves the incoherent transfer or dissipation of vibrational
energy, leading to an increase in the randomness or range of frequency
patterns.
Heisenberg Uncertainty Principle: A fundamental
principle of quantum mechanics stating that certain pairs of conjugate
physical properties, like position and momentum, cannot both be known to
arbitrary precision simultaneously. In CWM, it reflects the inherent
diffuseness and non-localization of frequency patterns, making precise,
simultaneous measurement of conjugate variables impossible.
(Physical Interpretation of Mass and Spacetime, Section
3.1)
Higgs Boson: A fundamental particle associated with
the Higgs field, which gives mass to other elementary particles in the
Standard Model. In CWM, it is reinterpreted as a specific resonant
excitation or mode of the universal medium’s mass-conferring property.
(Theory of General Mechanics, Part IV)
Higgs Mechanism: The process by which elementary
particles acquire mass through their interaction with the Higgs field in
the Standard Model. In CWM, it is reinterpreted as the intrinsic
‘frequency impedance’ of the universal medium, determining how readily
resonant patterns propagate and stabilize, thereby conferring inertia.
(Natural Units: Universe's Hidden Code, Section 4.2)
Hilbert Space: An infinite-dimensional complex
vector space used to represent the quantum states of a system in
standard quantum mechanics. CWM critiques this as an abstract epicycle,
fundamentally divorcing physics from real-world, intuitive spatial
understanding.
(Critiquing Quantum Discreteness Foundations, Section 3.2;
Outline Chapter 3.2)
Hilbert-Pólya Conjecture: A mathematical conjecture
stating that the imaginary parts of the Riemann zeros correspond to the
eigenvalues of a Hermitian operator. The POHC identifies this operator
as the Hamiltonian of the Quantum Vacuum (Ĥ_U). (POHC document)
History (\(\gamma\)) In General Mechanics’
sum-over-histories formulation (similar to Feynman’s path integral), a
specific sequence of rewrite rule applications that transforms an
initial Universal Relational Graph (URG) state into a final state.
(Theory of General Mechanics, Section 16)
Holographic Principle: A principle positing that
the complete description of a volume of space can be encoded on its
lower-dimensional boundary. CWM leverages this for understanding
ultimate information limits and the emergent nature of 3D space.
(Physical Interpretation of Mass and Spacetime, Section 5;
Formal Framework for a Non-Local Frequency-Based Reality,
Section 8)
Homochirality (of Biology) The phenomenon where
biological molecules exclusively utilize one of their two possible
mirror-image forms. CWM explains this as an expected outcome of an
optimizing, self-organizing system (Autaxys), driven by the universal
medium’s inherent asymmetry.
(Physical Interpretation of Mass and Spacetime, Section
26.2; Treatise on Clocks and Taxonomies, Section 26.2)
Homodyne Detection: A standard technique in quantum
optics where the signal from a quantum resonator is interfered with a
strong classical laser beam. Used in QRC for phase-sensitive readout of
quantum states. (Theory of General Mechanics, Part
VII)
Horizon Problem: A cosmological problem in the Big
Bang model concerning why distant, causally disconnected regions of the
universe have the same temperature. VSL cosmologies (aligned with CWM)
offered solutions to this problem.
(Physical Interpretation of Mass and Spacetime, Section
24.1)
Hubble Constant (H₀) The current rate of expansion
of the universe. The “Hubble Tension”—a significant discrepancy in its
measured value—is a major anomaly that CWM addresses.
(Physical Interpretation of Mass and Spacetime, Section
3)
Hubble Tension: A statistically significant and
persistent discrepancy between the value of the Hubble constant (H₀) as
measured from the early universe (via CMB) and the local, late-time
universe (via supernovae). CWM interprets this as direct evidence of the
universal medium’s evolving properties over cosmic time.
(Physical Interpretation of Mass and Spacetime, Section
24)
Hybrid Opto/Electro-Mechanical Systems: Systems
that couple mechanical resonators to optical or microwave cavities,
allowing for control and readout of mechanical states using light or
microwaves. These are promising candidates for QRC.
(Theory of General Mechanics, Part VII)
Hybrid Quantum Systems: Computational architectures
that combine different physical platforms to leverage their respective
strengths in quantum computing. Relevant for QRC, which may use such
architectures. (Theory of General Mechanics, Part VII)
Hyperbolic Manifold: A manifold with constant
negative curvature. In CWM, the emergent geometry of spacetime is
strongly suggested to be hyperbolic, linked to the URG’s global
stability metric. (Theory of General Mechanics, Part
IV)
Hypergraph: In the Wolfram Physics Project (and
integrated into GM), a generalization of a graph where edges can connect
any number of vertices. The Universal Relational Graph (URG) in CWM is
conceptualized as a dynamic attributed hypergraph.
(Theory of General Mechanics, Part IV)
Hypergraph Laplacian: A mathematical operator
(matrix) defined for a hypergraph, generalizing the standard graph
Laplacian. Its eigenvalues encode information about the hypergraph’s
connectivity and stability, used in CWM to analyze the URG.
(Theory of General Mechanics, Part IV)
Hypergraph Rewrite Rules: Formal rules (\(p: L \to R\)) that specify how a pattern
hypergraph (\(L\)) within a host
hypergraph (\(H\)) can be replaced by a
replacement hypergraph (\(R\)), driving
the evolution of the Universal Relational Graph (URG). These rules
define the universe’s computational steps.
(Theory of General Mechanics, Part IV)
\(h_c\): A
fundamental dimensionless constant in General Mechanics, analogous to
the Planck constant (\(\hbar\)) in
quantum mechanics. It is defined within the system’s axioms and governs
the “quantumness” or stochasticity of the cosmic computation,
influencing the Universal Relational Graph (URG)‘s probabilistic
evolution.
In Silico Cosmology: Computational experiments
based on the Universal Relational Graph (URG) model that aim to robustly
and generatively reproduce the key features of our universe (e.g.,
large-scale structure, fundamental constants). A computational
validation path for CWM. (Theory of General Mechanics, Part
II, Section 18; Outline Chapter 9.2)
Inertia: The resistance of any physical object to
any change in its state of motion. In CWM, inertia is not an intrinsic
property of mass but an interaction effect between a dynamic
pattern (a waveform) and the surrounding universal medium, consistent
with Mach’s Principle. (Theory of General Mechanics,
Section 17.2)
Inertial Frame of Reference: In classical and
relativistic physics, a frame of reference in which an object at rest
remains at rest and an object in motion continues to move at a constant
velocity unless acted upon by an external force. CWM predicts subtle
violations of Lorentz Invariance, implying the universal medium might
constitute a fundamental preferred frame.
(Formal Framework for a Non-Local Frequency-Based Reality,
Section 18.1)
Infinite Divisibility of Matter: In CWM, this
concept is naturally accommodated as the analytical resolution of
ever-finer sub-harmonic structures and continuous dynamics intrinsically
existing within a continuous waveform (particle). This directly
contradicts the notion of discrete, indivisible quanta or point
particles. (Outline Chapter 4.2.2)
Information: In CWM, information is a fundamental
physical currency of reality, referring to the specific coherent pattern
of frequency and phase relationships within the universal medium. It is
intrinsically linked to mass and energy (via Landauer’s Principle) and
is primary to the emergence of physical reality.
(Theory of General Mechanics, Section 6;
Natural Units: Universe's Hidden Code, Section 6)
Information Theory: A mathematical framework for
quantifying, storing, and communicating information. Applied in CWM to
describe the complexity, redundancy, and efficiency of encoding and
decoding information within frequency patterns and their interactions.
(Theory of General Mechanics, Part III)
Informational Threshold: The critical point in
cosmic evolution where a physical system’s dynamics cease to be governed
solely by the immediate laws of physics and begin to be directed by
encoded, heritable information, thereby leading to the emergence of
life. (Treatise on Clocks and Taxonomies, Section 4.1)
Integrated Information Theory (IIT): A theory of
consciousness (Tononi, 2004) positing that consciousness is identical to
a system’s quantity of “integrated information,” quantified by Phi (Φ).
CWM synthesizes IIT into its Consciousness Postulate, linking integrated
information to coherent resonant patterns.
(Treatise on Clocks and Taxonomies, Section 28.1)
Interference (Wave): The phenomenon in which two or
more waves superpose to form a resultant wave of greater, lower, or the
same amplitude. Crucial for pattern formation and signal processing in
CWM, explaining phenomena like the double-slit experiment.
(Theory of General Mechanics, Part III)
Interferometry: A technique that uses the
interference of waves (e.g., light waves) to make precise measurements,
relevant for detecting subtle frequency patterns and validating CWM
(e.g., in tests for Lorentz Violation).
(Theory of General Mechanics, Part VII)
Intrinsic Clock: In CWM, an entity’s complete
temporal signature—a comprehensive, four-dimensional description of its
existence as a process in time, composed of a fundamental frequency,
hierarchical harmonies (nested cycles), and its overall lifespan. This
serves as a universal classificatory tool.
(Treatise on Clocks and Taxonomies, Section 2.2)
Josephson Junctions: Superconducting electronic
components that exhibit unique quantum mechanical properties. Used in
Quantum Flux Parametrons (QFP) and superconducting circuits for QRC.
(Theory of General Mechanics, Part VII)
k-uniform: A property of a hypergraph where every
hyperedge has the same cardinality (connects the same number of
vertices). This implies a consistent level of relational complexity in
the URG.
Kaluza-Klein Theory: A theoretical framework
(Kaluza, 1921; Klein, 1926) that reformulates General Relativity in
higher dimensions, yielding both Einstein’s equations for gravity and
Maxwell’s equations for electromagnetism. CWM uses this as strong
support for unifying forces within a single, higher-dimensional
universal medium. (Theory of General Mechanics, Section
22.3)
Kerr Nonlinearity: A nonlinear optical or circuit
phenomenon where the refractive index or resonant frequency of a medium
changes with the intensity of light or electromagnetic field. Crucial
for creating stable phase states in Kerr Parametric Oscillators (KPOs)
for QRC. (Theory of General Mechanics, Part VII)
Kerr Parametric Oscillator (KPO): A nonlinear
quantum resonator that can be stabilized into a quantum superposition of
two coherent states with opposite phases, often called a “Schrödinger
cat state.” Used in Quantum Resonance Computing (QRC).
(Theory of General Mechanics, Part VII)
Kinematic: Pertaining to motion, typically without
reference to mass or force. In GM, a particle’s internal motion
(Zitterbewegung) is a kinematic origin for its mass and spin.
Kinetic Energy: The energy an object possesses due
to its motion. In CWM, it is the energy associated with the propagation
or dynamic change of a frequency pattern.
(Theory of General Mechanics, Part II)
Klein-Gordon Equation: The relativistic wave
equation for spin-0 particles. It incorporates the Compton frequency,
providing theoretical support for the mass-frequency identity.
(Theory of General Mechanics, Section 15)
Kolmogorov Complexity: A measure of an object’s
algorithmic complexity, defined as the length of the shortest computer
program that can generate that object. Relevant for defining the
“simplicity” axiom and understanding computability limits in General
Mechanics. (Theory of General Mechanics, Part II)
Koide Formula: An empirical, unexplained relation
between the masses of the three charged leptons (electron, muon, tau).
In POHC, it is reinterpreted not as numerology, but as a robust
empirical law reflecting deeper geometric or algebraic relationships
between lepton generations, a direct signature of dynamical stability
governed by φ. (POHC document)
Lagrangian (Physics): A mathematical function that
describes a physical system’s dynamics, typically defined as kinetic
energy minus potential energy. In CWM (within GM), the Autaxic
Lagrangian (\(\mathcal{L}_A\))
quantifies the “ontological fitness” or viability of universe states and
guides its evolution through a variational principle.
(Theory of General Mechanics, Section 16)
Lambda-Cold Dark Matter (\(\Lambda\)CDM) Model: The standard
cosmological model that describes the universe as composed of ordinary
matter, cold dark matter, and dark energy. CWM critiques its anomalies
and reliance on Dark Matter/Energy as ad-hoc additions.
(Physical Interpretation of Mass and Spacetime, Section
2)
Lamb Shift: A small shift in the energy levels of
atoms, providing empirical evidence for the quantum vacuum’s existence
and activity. CWM interprets this as a property of the universal medium.
(Physical Interpretation of Mass and Spacetime, Section
3.2)
Landauer’s Principle: A principle (Landauer, 1961)
stating that the irreversible erasure of one bit of information from a
physical system necessarily dissipates a minimum amount of heat (\(E \ge k_B T \ln 2\)) into the environment.
This demonstrates information is fundamentally physical and linked to
energy, supporting CWM’s unification of mass, energy, and information.
(Natural Units: Universe's Hidden Code, Section 27.4)
Lattice (Discrete Subgroup): A discrete subgroup of
a continuous Lie group where the elements are separated by discrete
distances. In CWM, emergent continuous symmetries at large scales may
manifest as statistical invariances under such discrete subgroups.
(Theory of General Mechanics, Part IV)
Law of Existence: The derived law in General
Mechanics, \(\boxed{\textbf{EXISTENCE} \equiv
\textbf{SELF-CONSISTENCY}}\), which identifies the mathematical
property of self-consistency with the fundamental physical property of
existence. It implies that a system can only exist if its dynamics are
self-consistent within the URG framework.
(Theory of General Mechanics, Section 13)
Laws of Physics: In CWM, these are explicitly
not externally imposed rules but are *emergent,
self-consistent grammar* or consequences of a single, unitless
optimization principle (the Principle of Least Action) governing the
universe’s dynamic, computational process.
(Theory of General Mechanics, Section 12)
Lepton: A class of fundamental fermions that
includes electrons, muons, taus, and their corresponding neutrinos. In
CWM, leptons are interpreted as stable, fundamental frequency patterns
that do not experience the strong nuclear force.
(Theory of General Mechanics, Part III)
Lie Group: A group that is also a differentiable
manifold, allowing for the description of continuous symmetries (e.g.,
rotations, translations). In CWM, emergent continuous symmetries are
hypothesized to arise from the URG’s statistical behavior.
(Theory of General Mechanics, Part IV)
Light-Matter Interaction: The way light (photons)
interacts with matter (atoms, electrons). In CWM, this is understood as
the resonant coupling and energy exchange between specific photon
frequency patterns and matter particles’ intrinsic frequency patterns
within the universal medium. (Theory of General Mechanics,
Part II)
Linear Approximation (QM): CWM posits that the
linear, non-relativistic quantum dynamics of QM emerge only as an
approximation in specific low-energy, low-density regimes. The full
underlying dynamics are non-linear, deterministic, and locally causal
within the universal medium. (Outline Chapter 7.2.2)
Lissajous Figures: Patterns generated by the
superposition of two or more simple harmonic motions, often used in QRC
to visualize complex frequency interactions.
(Theory of General Mechanics, Part III)
Lived Body: A phenomenological concept
(Merleau-Ponty, 1962) asserting that the observer in science is not an
abstract, disembodied mind, but a “lived body” that is lived and through
which we primarily engage with the world. CWM integrates this into its
epistemology. (Treatise on Clocks and Taxonomies, Section
33.2)
Local Realism: The classical intuition that objects
have definite properties independent of measurement and that influences
cannot travel faster than light. CWM’s foundational critique: it has
been empirically falsified by Bell tests.
(Formal Framework for a Non-Local Frequency-Based Reality,
Postulate I)
Locality: The principle that an event can only be
influenced by its immediate infinitesimal surroundings, with effects
propagating continuously at a finite speed. CWM argues this is an
effective approximation at macroscopic scales, not a
fundamental principle of reality.
(Physical Interpretation of Mass and Spacetime, Section
1)
Loop Quantum Gravity (LQG): A theory of quantum
gravity that quantizes spacetime itself, predicting that geometric
quantities like area and volume have discrete spectra. Used as a
comparative formalism for the URG.
(Theory of General Mechanics, Section 30.1)
Lorentz Invariance: The principle that the laws of
physics are the same for all inertial observers, a core tenet of Special
Relativity. CWM predicts subtle, energy-dependent violations of Lorentz
invariance.
(Formal Framework for a Non-Local Frequency-Based Reality,
Section 18.1; Outline Chapter 8.1)
Lorentz Invariance Violation (LIV): Any deviation
from the principle of Lorentz invariance. CWM predicts its existence at
a subtle, energy-dependent level due to the dynamic universal medium,
serving as a key falsifiable prediction.
(Formal Framework for a Non-Local Frequency-Based Reality,
Section 18.1; Outline Chapter 8.1)
Lorentzian Manifold: A mathematical space that
locally resembles Minkowski spacetime, used in General Relativity to
describe spacetime. In CWM, emergent spacetime is hypothesized to be a
Lorentzian manifold, emerging from the URG’s dynamics.
(Theory of General Mechanics, Part IV)
Lucas Primality Constraint: A filter within the
POHC stating that a φ^p harmonic can only manifest as a stable, free
particle if its corresponding Lucas Number (L_p ≈ φ^p) is also prime. If
L_p is composite, the state is “fundamentally decomposable” and cannot
exist in isolation, explaining quark confinement. (POHC document)
Mach’s Principle: The idea (Ernst Mach, 1893) that
inertia is not an intrinsic property of an object but a relational
effect determined by the object’s interaction with all other matter in
the universe. CWM provides a physical mechanism for this through the
dynamic universal medium. (Theory of General Mechanics,
Section 17.2)
Magnons: Quantized spin waves in magnetic
materials, a type of emergent, collective excitation in condensed
matter. CWM sees these as specific localized waveforms or patterns of
coherence. (Discrete Lens, Section 4.3)
Many-Worlds Interpretation (MWI): A prominent
interpretation of quantum mechanics (Everett, 1957) where all possible
outcomes of a quantum measurement occur in branching, parallel
universes. CWM critiques its ontological extravagance and its
difficulties in deriving the Born Rule.
(Critiquing Quantum Indeterminism's Foundations, Section 6;
Outline Chapter 7.3.2)
Mapping Problems to Resonances: A crucial
theoretical task in QRC, requiring an algorithmic procedure for
translating abstract computational problems into the physical control
parameters required for a QRC to solve them.
Mass as Frequency: The fundamental identity in CWM
(\(m=\omega\)) where a particle’s mass
is ontologically equivalent to its intrinsic angular frequency. This is
a core CWM postulate.
(Formal Framework for a Non-Local Frequency-Based Reality,
Section 2.2; Natural Units: Universe's Hidden Code, Section
3.2)
Mass-Energy Equivalence (\(E=mc^2\)): Albert Einstein’s
famous equation (1905) establishing the interconvertibility of mass and
energy. This is a foundational equation used to derive the
mass-frequency identity in CWM.
(Formal Framework for a Non-Local Frequency-Based Reality,
Postulate II)
Mass-Frequency Identity (\(m=\omega\)): The core ontological
postulate of Continuous Wave Mechanics, stating that mass is
ontologically equivalent to the intrinsic angular frequency of a stable,
resonant process. This is derived in natural units.
(Formal Framework for a Non-Local Frequency-Based Reality,
Section 2.1)
Matter: In CWM, matter is an *emergent
phenomenon*, understood as stable, localized, resonant frequency
patterns or wave packets within the universal medium, rather than
fundamental, discrete “stuff.”
(Theory of General Mechanics, Part III)
Matter-Wave: The concept that matter exhibits
wave-like properties, as described by the de Broglie wavelength. In CWM,
all matter is fundamentally a wave (a stable frequency pattern
or wave packet). (Theory of General Mechanics, Part
II)
Maximum Information Content (\(\mathcal{I}_{max}\)): The derived
law in GM, \(\boxed{\mathcal{I}_{max} = 4\pi
m^2}\), showing that the maximum information that can be
associated with a variable ‘m’ (mass/frequency) is proportional to its
square. This links information to the physics of gravitational limits.
(Theory of General Mechanics, Section 8)
Maximum Speed (Speed of Light): The derived law in
GM, \(\boxed{L/T=1}\), stating that the
maximum speed is the system’s own inherent causal processing rate (one
unit of space per one unit of time). This reinterprets the speed of
light as the fundamental clock speed of causality and information
transfer within the cosmic computation.
(Theory of General Mechanics, Section 13)
Maxwell’s Equations: A set of four partial
differential equations (Maxwell, 1865) forming the foundation of
classical electromagnetism. In CWM, they describe the behavior and
propagation of electromagnetic frequency patterns within the universal
medium. (Physical Interpretation of Mass and Spacetime,
Section 3.2)
Measurement Effect: In quantum mechanics, the
process by which observing or interacting with a quantum system causes
its wave function to collapse. CWM reinterprets this as a physical
process of “resonant locking.”
(Theory of General Mechanics, Part III)
Measurement Problem: The unresolved issue in
quantum mechanics concerning how a quantum system’s superposition of
states ‘collapses’ into a single, definite outcome upon observation. CWM
solves this with “resonant locking.”
(Critiquing Quantum Discreteness Foundations, Section 3;
Outline Chapter 3.3, 6.2)
Medium-Dependent Properties: CWM asserts properties
like the speed of light and gravitational constant are emergent,
medium-dependent.
(Physical Interpretation of Mass and Spacetime, Section
3.2; Outline Chapter 5.3.3)
Meson: Any composite subatomic particle made of a
quark and an antiquark. In CWM, mesons are interpreted as short-lived,
unstable resonant frequency patterns formed by the interaction of a
quark and antiquark frequency pattern within the universal medium.
(Theory of General Mechanics, Part III)
Meta-field: In General Mechanics, the single,
unified medium (URG) that is the ultimate source of all other distinct
fields observed in the universe.
(Theory of General Mechanics, Part III)
Meta-Law of Dynamics: The derived law in General
Mechanics, \(\boxed{\delta(\text{dimensionless
number}) = 0}\), demonstrating that all physical laws are
emergent from a single optimization principle acting on a pure number.
(Theory of General Mechanics, Section 12)
Metaphor: A fundamental feature of the human
conceptual system where abstract or unfamiliar domains are understood by
mapping them onto more concrete, familiar domains rooted in embodied
experience. CWM uses metaphor (e.g., “orchestra”) to structure
understanding. (Treatise on Clocks and Taxonomies, Section
33.1)
Metaphoric Matrix: A principle within General
Mechanics’ post-anthropocentric praxis advocating for the use of
systemic and process-oriented metaphors over object-based ones to
restructure thought. (Treatise on Clocks and Taxonomies,
Section 33.3)
Metamaterials: Engineered materials that derive
properties from their designed structure rather than composition,
allowing for specific resonant responses to frequency patterns, useful
for QRC architectures.
Metric Space: A set equipped with a distance
function (metric) that defines the distance between any two elements in
the set. In CWM, the emergent spacetime metric arises from the URG.
(Theory of General Mechanics, Part IV)
Microtubules: Cylindrical protein lattices within
neurons, proposed by Orch-OR theory as structures for quantum processing
in the brain.
Minimum Scale (Planck Length): The derived law in
GM, \(\boxed{L_P = \sqrt{2}}\),
representing the minimum possible length scale where a system’s quantum
scale equals its gravitational scale. CWM reinterprets Planck scale as
epistemological limit, not ontological floor.
(Theory of General Mechanics, Section 13;
Physical Interpretation of Mass and Spacetime, Section
3.1)
Modified Newtonian Dynamics (MOND): A
phenomenological theory (Milgrom, 1983) that modifies Newton’s laws of
gravity or inertia at extremely low accelerations to explain galactic
rotation curves without dark matter. CWM explains MOND as an
effective, macroscopic force law of the universal medium.
(Physical Interpretation of Mass and Spacetime, Section
23.3)
Molecular Vibrational and Rotational Modes: The
collective, quantized motions of constituent atoms in polyatomic
molecules, each with characteristic resonant frequencies, proposed as a
basis for encoding qubits in QRC.
Momentum: The derived law in GM, \(\boxed{p = \sqrt{m^2 - m_0^2}}\),
representing the component of the total variable ‘m’ (mass/frequency)
that is distinct from its rest-state value.
(Theory of General Mechanics, Section 10)
Montgomery-Odlyzko Law: An empirical law revealing
that the statistical distribution of the spacings between Riemann zeros
is identical to that of the eigenvalues of random Hermitian matrices
from the Gaussian Unitary Ensemble (GUE). The POHC identifies this as
the spectral signature of the quantum vacuum. (POHC document)
Muon: An unstable elementary particle, a lepton,
heavier than an electron. The “Muon g-2 Anomaly” is a major test for
CWM’s medium response.
(Physical Interpretation of Mass and Spacetime, Section
3)
Muon g-2 Anomaly: A persistent discrepancy between
the experimentally measured and theoretically predicted anomalous
magnetic moment of the muon. CWM reinterprets this as a
frequency-dependent medium response, a “dispersion measurement” of the
universal medium.
(Physical Interpretation of Mass and Spacetime, Section
25)
Natural Unit Systems: Systems of units where
fundamental physical constants (e.g., the speed of light c,
Planck’s constant ħ) are set to 1, simplifying equations and
revealing fundamental relationships. CWM uses these to reveal hidden
relations (m=ω). (Natural Units: Universe's Hidden Code,
Section 2)
Neutrino: A fundamental, very light, neutral lepton
that interacts only via the weak force and gravity. Used in experiments
to test Lorentz Violation. (Outline Chapter 8.1)
Neutron: A neutral subatomic particle, a baryon,
found in atomic nuclei. In a frequency universe, a neutron is a complex,
stable standing wave pattern resulting from the coherent interaction of
three quark frequency patterns (one up, two down).
Newtonian Physics: See Classical Mechanics.
Newton’s Laws of Motion: Three fundamental laws
forming the basis of classical mechanics. In CWM, emergent
approximations of underlying frequency dynamics.
(Theory of General Mechanics, Part I)
Neuromorphic Computing: A computing paradigm that
seeks to build hardware mimicking the brain’s architecture of
interconnected, nonlinear neurons and synapses. QRC can utilize this
with ‘neuronal’ resonators. (Theory of General Mechanics,
Part VII)
Noetherian (Rewriting System): A property of a
rewriting system indicating that there are no infinite sequences of rule
applications; it is “terminating.” General Mechanics’ system is
hypothesized to be non-terminating, designed for ongoing evolution.
Non-Commutative Geometry (NCG): A mathematical
framework (Connes, 1994) that describes spaces where coordinates cease
to be simple numbers and instead become non-commuting operators,
suggesting a fundamental fuzziness at the Planck scale. CWM may use this
to describe Planck-scale granularity of the URG.
(Theory of General Mechanics, Section 30.2)
Non-confluent (Rewriting System): A property of a
rewriting system where the choice of rule application fundamentally
alters the future trajectory, meaning different paths do not necessarily
lead to a common final state. URG is hypothesized as non-confluent.
(Theory of General Mechanics, Part IV)
Non-determinism: The property of a system where,
given the same input or state, there can be multiple possible next
states or outcomes. URG has fundamental non-determinism resolved by
variational principle. (Theory of General Mechanics, Part
IV)
Non-Linear Dynamics: A field of mathematics that
studies complex, dynamic systems highly sensitive to initial conditions,
often leading to seemingly random or unpredictable outcomes. Essential
for modeling CWM’s universal medium.
(Theory of General Mechanics, Part II)
Non-Linear Wave Equation: Fundamental law of motion
for the universal medium in CWM. Generates stable waveforms.
(Outline Chapter 5.1)
Nonlinear Optical Materials: Materials whose
optical properties (e.g., refractive index) change in response to light
intensity. They are used in QRC to create tunable, nonlinear
interactions between frequency patterns.
Non-locality: A feature of quantum mechanics where
two or more particles become linked such that measurement of one
instantaneously influences the other, regardless of spatial separation.
CWM explains this as intrinsic property of a single, interconnected
medium.
(Formal Framework for a Non-Local Frequency-Based Reality,
Postulate I)
Non-terminating (Rewriting System): A property of a
rewriting system indicating that it runs indefinitely, continuously
evolving without reaching a final, stable state. URG is hypothesized as
non-terminating, modeling ongoing cosmic evolution.
(Theory of General Mechanics, Part IV)
Non-trivial (Autaxic Axiom Clause): A clause within
General Mechanics’ foundational axiom implying that the universe must be
the simplest non-trivial system satisfying self-consistency
conditions, invoking a principle of economy.
(Theory of General Mechanics, Section 16)
Novelty (Autaxic Trilemma): One of the three
imperatives of the Autaxic Trilemma, representing the tendency to
explore new configurations, generate new information, and increase
complexity. (Theory of General Mechanics, Section 16;
Natural Units: Universe's Hidden Code, Section 7.1)
Null Geodesics: The path of light in GR. CWM
critiques this as a feature of a falsified local model.
(Formal Framework for a Non-Local Frequency-Based Reality,
Section 3.3)
Null Hypothesis (H₀): The prevailing paradigm of
modern fundamental physics, comprising General Relativity and the
Standard Model, which General Mechanics posits is foundationally
incoherent. (Theory of General Mechanics, Part I)
Observable (Quantum): A physical property of a
quantum system that can be measured. In CWM, corresponds to specific,
stable resonant frequency patterns.
(Critiquing Quantum Discreteness Foundations, Section
2.1)
Observer Effect: In quantum mechanics, the idea
that the act of observation or measurement itself influences the state
of the system being observed. CWM reinterprets this as the interaction
between a macroscopic, coherent frequency pattern (the
observer/measurement apparatus) and a microscopic, less coherent
frequency pattern (the quantum system), leading to a specific resonant
mode dominating.
Occam’s Razor: A philosophical principle stating
that among competing hypotheses that predict equally well, the one with
the fewest assumptions should be selected. CWM aims for parsimony.
(Theory of General Mechanics, Part II)
Octonions: The largest of the four normed division
algebras, with 8 dimensions. The POHC posits that the vacuum’s algebraic
structure is based on Octonions, providing 8 primal algebraic degrees of
freedom. (POHC document)
Objective Reduction (OR): A physical process
proposed by Roger Penrose in Orch-OR theory, where quantum
superpositions spontaneously and objectively collapse due to
gravitational self-energy. CWM critiques Orch-OR’s mechanism but agrees
with emergent collapse. (Treatise on Clocks and Taxonomies,
Section 29.1)
Ontological Equivalence: A philosophical assertion
that two or more concepts or entities are fundamentally the same, not
merely proportional or related. Core to CWM (m=ω).
(Formal Framework for a Non-Local Frequency-Based Reality,
Section 2.2)
Ontological Fitness: A quantifiable measure within
General Mechanics (via the Autaxic Lagrangian) of how well a given state
of the universe aligns with the principles of Autaxys (Persistence,
Efficiency, Novelty), guiding its evolution.
(Theory of General Mechanics, Section 16)
Ontological Truth: A fundamental feature of reality
itself, as opposed to an epistemological limit of our knowledge.
(Physical Interpretation of Mass and Spacetime, Section
3.1)
Ontology: The study of being or existence; a
philosophical framework that defines the fundamental nature of reality.
CWM proposes process-based ontology.
(Theory of General Mechanics, Part III)
Operant Intentionality: A phenomenological concept
(Merleau-Ponty) describing the body’s primary and pre-reflexive
engagement with the world, establishing a dynamic rapport that precedes
abstract thought. CWM integrates this into epistemology.
(Treatise on Clocks and Taxonomies, Section 33.2)
Operator (Quantum): A mathematical entity that acts
on a quantum state to yield a new state or a measured value
(observable). CWM critiques as abstract epicycle.
(Critiquing Quantum Discreteness Foundations, Section 2.1;
Outline Chapter 3.1)
Orchestrated Objective Reduction (Orch OR): A
theory of consciousness proposed by Roger Penrose and Stuart Hameroff,
suggesting consciousness arises from quantum computations in
microtubules terminated by objective reduction. CWM critiques it but
incorporates its principles.
(Treatise on Clocks and Taxonomies, Section 29.1)
Origin of Mass: The derived law in GM, \(\boxed{m \in \{\text{solutions to } \delta
S=0\}}\), stating that the existence of matter is a mathematical
necessity of the system’s own dynamics.
(Theory of General Mechanics, Section 13)
Oscillation: Repetitive variation, typically in
time, of some measure about a central value or between two or more
different states. The fundamental basis of a frequency universe.
(Theory of General Mechanics, Part II)
Pair Production: The creation of a particle and its
antiparticle from a photon or other neutral boson. In CWM, spontaneous
formation of complementary frequency patterns.
(Theory of General Mechanics, Part I)
Parallel Processing: A method of computing where
multiple calculations or processes are executed simultaneously. In QRC,
inherent due to continuous medium.
(Theory of General Mechanics, Part VII)
Parametric Excitation: A phenomenon where a
system’s oscillation is induced or amplified by modulating a system
parameter at a specific frequency, typically twice its natural resonant
frequency. Used in QRC. (Theory of General Mechanics, Part
VII)
Parametric Oscillator-Based Amplification: A highly
effective readout strategy in QRC that involves using a second
parametric oscillator as a pre-amplifier to amplify small quantum
signals into large, measurable classical signals.
(Theory of General Mechanics, Part VII)
Parametron: An early computing device invented by
Eiichi Goto in 1954. It encoded binary states by exploiting the stable
phase of oscillation within a resonant circuit, serving as a historical
precursor to QRC. (Theory of General Mechanics, Part
VII)
Particle Generations: The existence of three
distinct sets of fundamental fermions (e.g., electron, muon, tau) in the
Standard Model. In CWM, fundamental frequency patterns at different
‘harmonic’ states. (Theory of General Mechanics, Part
IV)
Particle (in CWM): An emergent phenomenon
understood as a localized, stable, resonant pattern (e.g., a wave packet
or soliton) within the dynamic medium, rather than a fundamental,
discrete object. (Outline Chapter 4.2.1)
Path Integral Formulation: A formulation of quantum
mechanics that expresses the probability amplitude for a particle to go
from one point to another as a sum over all possible paths between the
points. In CWM, reinterpreted as summation over all possible frequency
evolutions. (Theory of General Mechanics, Part II)
Pathology (in CWM): A loss of coherence,
coordination, or harmony within a nested biological system. Disease is
systemic dissonance. (Treatise on Clocks and Taxonomies,
Section 6.1)
Pattern Graph Schemata: Meta-rules for rewriting
systems, allowing operations on structures of arbitrary size. Used in
URG. (Theory of General Mechanics, Part IV)
Perceptron: A foundational concept in artificial
intelligence, a type of artificial neural network exhibiting parallels
in its operational principles with QRC’s frequency-based interactions.
(Theory of General Mechanics, Part VII)
Persistence (Autaxic Trilemma): One of the three
imperatives of the Autaxic Trilemma, representing the tendency for
stable, self-reinforcing patterns and processes to endure over time.
(Theory of General Mechanics, Section 16;
Natural Units: Universe's Hidden Code, Section 7.1)
Phase (Wave): The position of a point in time (or
space) on a waveform cycle relative to another point. Crucial for
understanding interference, coherence, and information encoding in CWM.
(Theory of General Mechanics, Part II)
Phase Encoding: A method in QRC using phase of
quantum oscillation for binary info.
(Theory of General Mechanics, Part VII)
Phase Factor: A complex number (phasor) whose phase
is determined by the action of a particular history in the
sum-over-histories formulation. Dictates interference.
(Theory of General Mechanics, Part II)
Phase Space: A multi-dimensional space in which all
possible states of a system are represented, with each possible state
corresponding to one unique point in the phase space. In CWM, describes
range of possible frequency patterns.
(Theory of General Mechanics, Part II)
Phased Arrays: Arrays of antennas or transducers
that can steer a beam of energy by controlling the relative phases of
signals emitted from each element. Used in QRC for frequency patterns.
(Theory of General Mechanics, Part VII)
Phenomenological Ground: A principle within General
Mechanics’ post-anthropocentric praxis that grounds communication in
direct, present-moment experience to dissolve the subject-object
dualism. (Treatise on Clocks and Taxonomies, Section
33.3)
Phi (Φ) (in IIT): In Integrated Information Theory
(IIT), a measure of integrated information, quantifying the extent to
which a system’s causal structure is irreducible to the sum of its
parts. (Note: This refers specifically to the IIT concept, not the
golden ratio.)
**Phi (\(\phi\), the Golden
Ratio):** Mathematically the “most irrational” number,
approximately 1.618. In POHC, it acts as a fundamental stability
modulus, organizing the vacuum’s harmonic structure to prevent resonant
collapse, thereby allowing for stable, hierarchical complexity at the
“edge of chaos.” (POHC document)
Phonon: A collective excitation in a periodic,
elastic arrangement of atoms or molecules, such as in solids and some
liquids. Analogous to photons, they are quantized vibrations, relevant
for acoustic/phononic systems.
Photon: The quantum of the electromagnetic field,
the elementary particle of light and all other forms of electromagnetic
radiation. In CWM, a discrete, localized, self-propagating frequency
pattern of the universal medium. Its mass is frequency-dependent.
(Physical Interpretation of Mass and Spacetime, Section 5;
Formal Framework for a Non-Local Frequency-Based Reality,
Section 2.3)
Physical Determinism of the Prime Numbers: A
foundational document outlining the POHC’s claim that prime numbers are
the spectral signature of the quantum vacuum.
Physical Interpretation of Mass and Spacetime: A
foundational document outlining CWM’s model of gravity as refraction and
its reinterpretation of mass.
Physics (in CWM): The study of the emergent
properties and dynamics of the Universal Relational Graph (URG) and its
frequency patterns. (Theory of General Mechanics, Part
III)
Planck Area: The square of the Planck length (\(l_P^2\)), which defines the ultimate “pixel
size” for information storage on the holographic screen according to the
Holographic Principle.
(Physical Interpretation of Mass and Spacetime, Section
27.1)
Planck-Einstein Relation (\(E=h\nu\)): A fundamental equation
(Planck, 1900; Einstein, 1905) in quantum mechanics that quantifies the
energy of a quantum of light (photon) in terms of its frequency, with
Planck’s constant as the proportionality factor. Foundational for
mass-frequency identity.
(Formal Framework for a Non-Local Frequency-Based Reality,
Postulate II)
Planck’s Constant (\(h\)): A fundamental physical
constant that relates the energy of a quantum of light (photon) to its
frequency. In CWM, a key proportionality factor establishing quantized
nature of energy and fundamental relations.
(Natural Units: Universe's Hidden Code, Section 1.2)
Planck Length: An unimaginably small distance
(approx. 1.6×10⁻³⁵ meters) derived from fundamental constants. CWM
interprets as epistemological limit, not ontological floor.
(Physical Interpretation of Mass and Spacetime, Section
3.1;
Formal Framework for a Non-Local Frequency-Based Reality,
Section 13)
Planck Mass: The unit of mass in the system of
natural units known as Planck units. In CWM, represents highest possible
mass for a single fundamental frequency coherent pattern.
(Natural Units: Universe's Hidden Code, Section 2.4.1)
Planck Scale: The energy, length, and time scales
at which quantum gravitational effects are expected to become
significant. CWM interprets as region where classical continuum models
break down. (Physical Interpretation of Mass and Spacetime,
Section 3.1)
Planck Time (\(t_p\)): The smallest possible
meaningful unit of time. Interpreted as period of highest fundamental
frequency. (Natural Units: Universe's Hidden Code, Section
2.4.1)
POHC (Prime Harmonic Ontological Construct): A
comprehensive synthesis of a novel theoretical framework that posits a
universe built on a single, unified, computational, and resonant
process, where the quantum vacuum acts as a universal resonator whose
properties are fundamentally constrained by π and φ. (POHC
document)
Point-Like Particles: The traditional conception of
fundamental particles as dimensionless points in space. Challenged by
CWM’s process ontology. (Outline Chapter 4.2.1)
Potential Energy: The energy an object possesses
due to its position or configuration. In CWM, energy stored in
configuration of frequency patterns.
(Theory of General Mechanics, Part II)
Prime Harmonic Hypothesis (PHH): A hypothesis
within the POHC stating that the idealized mass-frequencies of
fundamental fermions (quarks and leptons) are not arbitrary but follow a
geometric progression relative to the electron: mf / me = φ^p, where
p is a prime number, the “Harmonic Index.” (POHC document)
Principle of Harmonic Closure: A foundational
document outlining the POHC’s derivation of the fine-structure constant
and particle mass spectrum.
Probabilistic Landscape: The range of possible
outcomes for a system, each with an associated probability. CWM focuses
on characterizing this landscape due to computability limits.
(Theory of General Mechanics, Part II)
Process Ontology: A philosophical view that reality
is fundamentally dynamic and that change and becoming are the primary,
irreducible features of reality, rather than static substances. Core of
CWM. (Theory of General Mechanics, Section 14)
Product of Hyperbolic Tangents of Spectral Gaps: A
global stability metric of the form \(\prod{i} \tanh(\lambdai)\), where \(\lambda_i\) are eigenvalues of the
hypergraph Laplacian. In CWM, suggests hyperbolic emergent geometry.
(Theory of General Mechanics, Part IV)
Problem of Time: An issue in quantum gravity where
time often disappears from the fundamental equations. CWM suggests time
is emergent. (Theory of General Mechanics, Part IV)
Proto-properties: In General Mechanics (drawing
from related formalisms), fundamental, quantized attributes assigned to
the Universal Relational Graph (URG)’s primitive elements (vertices and
hyperedges), from which all observable physical properties are claimed
to emerge. (Theory of General Mechanics, Part III)
Proton: A stable, positively charged subatomic
particle, a baryon, found in atomic nuclei. In CWM, complex, stable
standing wave pattern of quark frequencies.
(Theory of General Mechanics, Part III)
Proton Radius Puzzle: A persistent discrepancy in
the measured size of the proton. The POHC interprets this as a
fundamental challenge to QED calculations or lepton-proton interactions,
requiring a deeper understanding of particle substructure or modified
interactions with the vacuum medium. (POHC document)
Provocation (Einstein): Einstein’s simplicity
mandate challenges current complexity.
(Outline Chapter 1.1.2)
Pulsars: Highly magnetized, rotating neutron stars.
Type I-C systems in Resonant Complexity Framework.
(Treatise on Clocks and Taxonomies, Section 3.3)
Qualia: The intrinsic, subjective, first-person
informational states or phenomenal qualities of conscious experience. In
CWM, the intrinsic feel of information integrated in a conscious
resonant pattern. (Treatise on Clocks and Taxonomies,
Section 28.1)
Quantization (in CWM): The process by which a
physical quantity is restricted to discrete values. In CWM, arises from
the inherent resonant properties and impedance of the universal medium,
forcing energy and patterns into stable, discrete modes; an *emergent
property of stability*, not fundamental.
(Outline Chapter 4.3)
Quantization Tension: A new physical principle
within the POHC where the system “snaps” from an ideal continuous φ^p
value to the nearest stable, discrete harmonic state, explaining small
deviations in particle masses. (POHC document)
Quantum (in CWM): A discrete, irreducible unit or
excitation of a field. In CWM, a stable frequency pattern.
(Theory of General Mechanics, Part III)
Quantum Biology: Field investigating quantum
phenomena in biology. Supports CWM’s integration of life and physics.
(Treatise on Clocks and Taxonomies, Section 28.2)
Quantum Coherence: Wave function maintains definite
phase relationship. CWM requires this for pattern formation, especially
in consciousness. (Treatise on Clocks and Taxonomies,
Section 26.1)
Quantum Chromodynamics (QCD): Theory of strong
nuclear force. In CWM, describes nonlinear resonant dynamics of quark
confinement. (Theory of General Mechanics, Part IV)
Quantum Decoherence: Loss of quantum properties due
to environmental interaction. In CWM, dissipation of stable phase
relationships due to noisy environment.
(Theory of General Mechanics, Part IV)
Quantum Dots and Artificial Atoms: Nanoscale
semiconductor structures. QRC candidates.
(Theory of General Mechanics, Part VII)
Quantum Electrodynamics (QED): Relativistic quantum
field theory of electromagnetism. In CWM, details precise frequency
interactions. (Theory of General Mechanics, Part IV)
Quantum Error Correction (QEC): Schemes to protect
quantum information. CWM-QRC offers intrinsic robustness.
(Theory of General Mechanics, Part VII)
Quantum Entanglement: Particles linked regardless
of distance. In CWM, instantaneous phase-coupling or resonant alignment
of interconnected frequency patterns.
(Critiquing Quantum Indeterminism's Foundations, Section
3.1)
Quantum Field Theory (QFT): Theoretical framework
merging QM, SR, and classical field theory. CWM critiques QFT’s abstract
vacuum and volumetric information postulate.
(Physical Interpretation of Mass and Spacetime, Section
5)
Quantum Flux Parametron (QFP): Superconducting
device using subharmonic phase-locking. QRC precursor.
(Theory of General Mechanics, Part VII)
Quantum Gravity: Hypothetical field uniting gravity
and QM. CWM is a candidate theory.
(Theory of General Mechanics, Part I)
Quantum Harmonic Oscillator (QHO): Idealized
quantum system. Theoretical basis for QRC.
(Theory of General Mechanics, Part VII)
Quantum Jumps: Abrupt transitions between energy
states. In CWM, rapid, discrete shifts in resonant frequency patterns.
(Theory of General Mechanics, Part III)
Quantum-Limited Measurement: Measurement techniques
pushing to quantum limits. Essential for QRC.
(Theory of General Mechanics, Part VII)
Quantum Logic Gate: Basic quantum circuit. In QRC,
reinterpreted as engineered nonlinear interaction between frequency
patterns. (Theory of General Mechanics, Part VII)
Quantum Mechanics (QM): Fundamental theory for
atomic/subatomic behavior. In CWM, an *emergent, statistical
description* of underlying probabilistic frequency dynamics of the
URG. (Theory of General Mechanics, Introduction)
Quantum Measurement Problem: How superposition
collapses to single outcome. CWM solves this with “resonant locking.”
(Critiquing Quantum Discreteness Foundations, Section 3;
Outline Chapter 3.3, 6.2)
Quantum Non-Demolition (QND) Measurement:
Determines system state without disturbing it. Used in QRC.
(Theory of General Mechanics, Part VII)
Quantum Plenum: Concept in CWM describing dynamic,
energetic substrate constituting vacuum.
(Outline Chapter 4.1.1)
Quantum Resonance Computing (QRC): Novel
computational paradigm leveraging continuous, wave-like nature of
reality. (Theory of General Mechanics, Part VII;
Treatise on Clocks and Taxonomies, Section 31)
Quantum State: Mathematical description of quantum
system. In CWM, configuration of frequency and phase relationships
within universal medium. (Theory of General Mechanics, Part
III)
Quantum Tunneling: Particle passes through energy
barrier. In CWM, frequency pattern “leaking” through impedance barrier.
(Theory of General Mechanics, Section 22.4)
Quantum Vacuum: Lowest energy state of a quantum
field. In CWM, a dynamic, active, and information-rich universal medium.
(Natural Units: Universe's Hidden Code, Section 4.2)
Quantum Vacuum’s Harmonic Order: A foundational
document outlining the POHC’s identification of the quantum vacuum as
the universal resonator whose spectral signature is the Riemann
zeros.
Quantum Viscosity: Hypothetical intrinsic
‘graininess’ or ‘quantum friction’ of the quantum vacuum.
(Theory of General Mechanics, Part II)
Quark Confinement: Quarks never observed in
isolation. Explained by nonlinear resonant behavior of strong force in
CWM. (Theory of General Mechanics, Section 22.3)
Quark: Fundamental elementary particle. In CWM,
fundamental, confined frequency patterns within composite particles.
(Theory of General Mechanics, Part III)
Qubit: Basic unit of quantum information. QRC
conceptualizes as tunable, stable resonant frequency pattern.
(Theory of General Mechanics, Part VII)
Radin, Dean: Researcher in consciousness studies,
whose work on RNGs and consciousness is relevant to CWM’s consciousness
postulate.
Random Number Generators (RNGs): Devices producing
random sequences. CWM speculatively offers a physical mechanism for
anomalous correlations with consciousness.
(Treatise on Clocks and Taxonomies, Section 28.3)
Reduced Planck Constant (\(\hbar\)): Planck’s constant
divided by \(2\pi\). Used in
fundamental relations in natural units.
(Natural Units: Universe's Hidden Code, Section 1.2)
Refractive Index: Measure of how light propagates
through a medium. In CWM, locally altered by mass-energy, forming basis
of gravity model.
(Physical Interpretation of Mass and Spacetime, Section
6)
Relational (in CWM): Properties and existence
defined by relationships/interactions between elements.
(Theory of General Mechanics, Part III)
Relativity (Special/General): See Special/General
Relativity.
Renormalization: Mathematical procedure to remove
infinities in QFT. CWM reinterprets as a process of ‘coherence
filtering’. (Theory of General Mechanics, Part II)
Renormalization Group (RG): A mathematical
framework in QFT describing how physical parameters (like coupling
constants) change with the energy scale. In POHC, RG corrections are
applied to the bare value of α at the Planck scale to obtain its
low-energy value. (POHC document)
Reservoir Computing: Neuromorphic paradigm using
nonlinear dynamical system. QRC can function as a quantum reservoir.
(Theory of General Mechanics, Part VII)
Resonance Cascade: Chain reaction of resonant
interactions. Leads to complexity in QRC.
(Theory of General Mechanics, Part II)
Resonance Spectroscopy: Measures system’s response
to external signal to get spectrum. Used in QRC readout.
(Theory of General Mechanics, Part VII)
Resonance (in CWM): Phenomenon where a system
oscillates with maximum amplitude at certain frequencies. Key principle
for energy transfer, pattern formation, and stability of particles.
(Treatise on Clocks and Taxonomies, Chapter 2)
Resonant Complexity Framework: Novel taxonomic
framework unifying all phenomena, from particles to organisms, based on
continuous spectrum of resonant complexity.
(Treatise on Clocks and Taxonomies, Abstract)
Resonant Locking: CWM’s physical mechanism for wave
function collapse, where two wave systems deterministically settle into
a new, stable, shared resonance.
(Outline Chapter 6.2.2)
Riemann Hypothesis: A mathematical conjecture
stating that all non-trivial zeros of the Riemann Zeta function lie on
the critical line with real part 1/2. The POHC claims to provide a
physicalist resolution to this hypothesis. (POHC document)
Riemann Zeta Function: A complex function of
central importance in number theory, whose non-trivial zeros are
conjectured to lie on the critical line. Its zeros are identified as the
spectral signature of the quantum vacuum in POHC. (POHC document)
Riemannian Manifold: A smooth manifold equipped
with a Riemannian metric, allowing for the measurement of distances and
angles. In CWM, the smooth, continuous spacetime of General Relativity
is hypothesized to emerge as a macroscopic approximation of the
discrete, dynamic Universal Relational Graph (URG), potentially as a
Riemannian (or Lorentzian) manifold.
Ruliad: In Wolfram Physics Project, entangled
abstract object encompassing all computational rules. GM aims to select
a specific universe from this via Autaxys.
(Theory of General Mechanics, Part IV)
Scharnhorst Effect: Hypothetical prediction that
photons travel faster in Casimir cavity. Theoretical proof-of-concept
for vacuum engineering in CWM.
(Physical Interpretation of Mass and Spacetime, Section
3.2; Outline Chapter 32.1)
Schrödinger Equation: Mathematical equation for
quantum state evolution. CWM reinterprets as describing evolution of
frequency patterns. (Theory of General Mechanics, Part
I)
Schrödinger-Poisson Equations: Coupled equations
for ultralight dark matter. Aligns with CWM’s wave nature of galactic
halos. (Physical Interpretation of Mass and Spacetime,
Section 23.1)
Schumann Resonances: Global electromagnetic
resonances in Earth’s atmosphere. QRC could leverage as ambient
frequencies. (Theory of General Mechanics, Part VII)
Second Law of Thermodynamics: Entropy
non-decreasing. In CWM, macroscopic expression of computation’s logical
irreversibility. (Theory of General Mechanics, Section
12)
Self-Consistency: Foundational principle in GM.
Identified with existence. (Theory of General Mechanics,
Section 13)
Self-Organization: System spontaneously forms
organized structure. In CWM, arises from nonlinear interactions and
resonant feedback loops. (Theory of General Mechanics, Part
III)
Selberg Trace Formula: Powerful mathematical tool
relating Laplacian spectrum to geodesics. In CWM, suggests hyperbolic
emergent geometry. (Theory of General Mechanics, Part
IV)
Semi-harmonics: Frequencies not simple integer
multiples of fundamental. In QRC, represent noise and error, or
computational resources.
(Treatise on Clocks and Taxonomies, Section 31.7)
SH0ES Team: Measures local Hubble constant. Their
discrepancy (Hubble Tension) is key anomaly for CWM.
(Physical Interpretation of Mass and Spacetime, Section
3)
Shortcuts to Adiabaticity (STA): Quantum control
techniques for fast, precise manipulation. Crucial for QRC.
(Theory of General Mechanics, Part VII)
Sigma-8 Tension: A discrepancy in the ΛCDM model
quantifying the amplitude of matter fluctuations on an 8-megaparsec
scale, where early-universe predictions of clumpiness conflict with
late-universe observations. (POHC document)
Simplicity (Autaxic Axiom Clause): Implies the
universe is the simplest non-trivial system.
(Theory of General Mechanics, Section 16)
Singularity (Physics): Point of infinite
density/curvature. In CWM, extreme concentration of frequency patterns,
breakdown of normal spacetime.
(Theory of General Mechanics, Part II)
Single-Pushout (SPO): One of the primary algebraic
formalisms for defining graph (or hypergraph) rewriting rules, simpler
and more permissive than DPO. General Mechanics’ URG dynamics could be
defined by this approach.
Skyrmions: Topological solitons that arise in the
theory of pions and are used to construct models of baryons like protons
and neutrons, serving as an example of particle-like entities emerging
from field theories.
Socratic Turn: Principle in GM’s
post-anthropocentric praxis advocating for inquisitive communication.
(Treatise on Clocks and Taxonomies, Section 33.3)
Soliton: Self-reinforcing, localized wave emerging
from nonlinear equations. Key candidate for fundamental particle
representations in CWM. (Theory of General Mechanics,
Section 19)
Solvable Sectors: Restricted classes of initial
states, rewrite rules, or parameter values within a complex system for
which its evolution becomes analytically or computationally tractable.
Studying these simplified cases can provide insights into the full
system’s behavior in General Mechanics.
Space (in CWM): An emergent property of
the dynamic medium. Dimensions correspond to degrees of freedom in the
URG. (Theory of General Mechanics, Section 20)
Space-Like Separated: Events too far apart for
light to connect. Relevant for non-locality.
(Critiquing Quantum Indeterminism's Foundations, Section
3.4)
Spacetime (in CWM): An emergent property
of the dynamic, interacting frequency patterns of the universal medium.
(Theory of General Mechanics, Section 20)
Spacetime Curvature: See Curvature of
Spacetime.
Spacetime Scale: The derived law in GM, \(\boxed{L = T = \frac{1}{m}}\), showing
characteristic scales of Space and Time are derived as inverse of ‘m’.
(Theory of General Mechanics, Section 7)
Special Relativity (SR): Einstein’s theory. CWM
considers SR an emergent approximation valid at scales where
underlying frequency dynamics average out.
(Theory of General Mechanics, Part I)
Spectral Diffusion: Phenomenon where quantum dot
resonant frequencies fluctuate.
(Theory of General Mechanics, Part VII)
Spectral Gap: Difference between consecutive
eigenvalues of hypergraph Laplacian. Quantifies URG structural
stability. (Theory of General Mechanics, Part IV)
Spin (Physics): Intrinsic angular momentum. In CWM,
a fundamental, quantized rotational or helical frequency pattern.
(Theory of General Mechanics, Part III)
Spin Foam: In LQG, higher-dimensional structure
representing history of quantum spacetime.
(Theory of General Mechanics, Part IV)
Spin Networks: In LQG, graphs describing quantized
“chunks” of space. (Theory of General Mechanics, Part
IV)
Spontaneous Symmetry Breaking: System’s underlying
laws possess symmetry, but ground state does not. CWM suggests this for
emergent symmetries. (Theory of General Mechanics, Part
IV)
Standard Model of Particle Physics: Describes
fundamental particles/forces. In CWM, a classification system for stable
resonant patterns. Its anomalies are key targets.
(Physical Interpretation of Mass and Spacetime, Part
I)
Standing Wave: Stationary wave pattern. Many
fundamental particles modeled as stable standing waves in CWM.
(Theory of General Mechanics, Section 19)
Statistical Category Error: Planck’s flaw of
applying discrete counting to continuous energy.
(Outline Chapter 2.2.2)
Statistical Independence: Assumption in Bell’s
Theorem that detector settings aren’t correlated with particle
properties. Rejected by Superdeterminism.
(Critiquing Quantum Indeterminism's Foundations, Section
7.1)
Stochastic Electrodynamics (SED): Explains quantum
phenomena classically via background ZPF. CWM critiques its failures but
learns from its successes.
(Critiquing Quantum Discreteness Foundations, Section 4.3;
Outline Chapter 7.1)
Stoney Units: Historically significant natural
units. (Natural Units: Universe's Hidden Code, Section
2.6.1)
Strong CP Problem: A problem in QCD concerning why
the strong nuclear force does not violate CP symmetry, despite being
allowed by the theory. The POHC resolves this as a consequence of the
system’s inherent self-consistency, where the θ parameter in QCD must be
zero. (POHC document)
Subject-Object Split: Foundational dualism in
Western philosophy. CWM aims to dissolve this.
(Treatise on Clocks and Taxonomies, Section 33.3)
Sum-over-Histories Formulation: Quantum mechanical
approach. CWM adopts to describe URG’s probabilistic evolution.
(Theory of General Mechanics, Part II)
Superconducting Circuits: Electronic circuits
exhibiting quantum properties. QRC candidate.
(Theory of General Mechanics, Part VII)
Superdeterminism: Preserves local, deterministic
reality by rejecting statistical independence. CWM critiques its
complexity tax.
(Critiquing Quantum Indeterminism's Foundations, Section
7.1; Outline Chapter 7.3.3)
Superposition: Quantum principle of existing in
multiple states. In CWM, a diffuse, non-localized excitation of a
quantum field where multiple frequency patterns coexist.
(Theory of General Mechanics, Part I)
Symmetry (Physics): Property remaining unchanged
under transformation. In CWM, reflects underlying regularities and
constraints on frequency patterns.
(Theory of General Mechanics, Part III)
Tau (Particle): Unstable lepton. Its anomalous
magnetic moment is a key test for CWM.
(Physical Interpretation of Mass and Spacetime, Section
25.2; Outline Chapter 8.2)
Temperature: Average kinetic energy. In CWM,
reflects average kinetic energy of collective frequency patterns.
(Theory of General Mechanics, Part II)
Tensor Calculus: Complex mathematics of GR. CWM
replaces with simpler wave propagation math.
(Outline Chapter 3.4)
Theoretical Development (CWM): Urgent focus on
unified non-linear wave equations.
(Outline Chapter 9.1)
Thermodynamics: Physics of heat and energy. In CWM,
describes large-scale behavior of frequency patterns.
(Theory of General Mechanics, Part III)
Time Field: Theoretical concept of time as dynamic
field. Some theories link to Hubble Tension.
(Physical Interpretation of Mass and Spacetime, Section
3.2)
Time (in CWM): An emergent property of the
universe’s computational process, representing the irreversible
unfolding of cosmic computation (\(T=1/m\)).
(Theory of General Mechanics, Section 20)
Time Dilation: Predicted by relativity. In CWM,
local stretching/compression of fundamental frequency rates of universal
medium. (Physical Interpretation of Mass and Spacetime,
Section 8; Outline Chapter 5.3.3.1)
Time-Energy Uncertainty: Relates uncertainty in
energy to time. CWM uses this to show time is not rigid background.
(Theory of General Mechanics, Section 22.4)
Topological Property/Charge: Characteristic of
field configurations that ensures stability. In CWM, ensures robustness
of frequency patterns. (Theory of General Mechanics, Part
IV)
Topological Quantum Computing (TQC): Radical QC
approach encoding info in topological properties. QRC offers
alternative. (Theory of General Mechanics, Part VII)
Trans-physical: Realm beyond conventional physical
space. Holographic Principle suggests this.
(Physical Interpretation of Mass and Spacetime, Section
27.3)
Transactional Interpretation (TIQM): Uses
advanced/retarded waves to resolve quantum paradoxes. CWM critiques its
complexity.
(Critiquing Quantum Indeterminism's Foundations, Section
7.2; Outline Chapter 7.3.4)
Transducer: Device converting energy. Used in QRC.
(Theory of General Mechanics, Part VII)
Treatise on Clocks and Taxonomies: Document
outlining Resonant Complexity Framework. Integrated for concepts of
clocks, emergent complexity, consciousness.
Tubulin Protein Subunits: Protein components of
microtubules. Proposed by Orch-OR theory as qubits.
(Treatise on Clocks and Taxonomies, Section 29.1)
Tunable Lasers: Lasers whose output wavelength can
be adjusted. Used in QRC. (Theory of General Mechanics,
Part VII)
Turing Complete: Property of computational system
simulating any algorithm. Wolfram Physics Project’s Rule 110 is Turing
complete. (Theory of General Mechanics, Section 22.6)
Ultralight Dark Matter (ULDM): Extremely light
bosonic particles behaving as coherent waves. CWM incorporates as wave
nature of galactic halos.
(Physical Interpretation of Mass and Spacetime, Section
23.1)
Ultraviolet Catastrophe: Classical physics
prediction of infinite power at short wavelengths. CWM traces
quantization to methodological shortcut resolving this.
(Critiquing Quantum Discreteness Foundations, Section 2.1;
Outline Chapter 2.1)
Unification (Physics): Effort to describe all
forces/particles within single framework. Core goal of CWM.
(Theory of General Mechanics, Part I)
Unified Field Theory (UFT): Theoretical framework
unifying all fundamental forces/particles. GM aims to be one.
(Theory of General Mechanics, Part IV)
Unified Non-Linear Wave Equation: Core theoretical
development for CWM’s universal medium.
(Outline Chapter 5.1)
Universal Hamiltonian (Ĥ_U): In General Mechanics,
total energy/dynamics of URG. In POHC, identified as the Hilbert-Pólya
operator, whose eigenvalues are the Riemann zeros.
(Theory of General Mechanics, Part II; POHC document)
Universal Medium: Single, continuous, dynamic,
energetic substrate for all physical phenomena in CWM.
(Outline Chapter 4.1)
Universal Relational Graph (URG): In General
Mechanics, fundamental evolving network of abstract relationships
constituting dynamic, computational medium.
(Theory of General Mechanics, Part II)
Unruh Effect: Accelerating observer perceives
vacuum as thermal bath. Supports inertia as interaction with vacuum
fluctuations. (Theory of General Mechanics, Section
22.1)
Vacuum Energy: Energy density of vacuum. In CWM,
relates to universal medium’s background oscillations.
(Theory of General Mechanics, Section 9)
Vacuum Engineering: Manipulating vacuum properties
(e.g., permittivity, permeability). CWM suggests this is possible, with
implications for advanced propulsion.
(Theory of General Mechanics, Section 32)
Vacuum Permeability (μ₀): Physical constant
quantifying vacuum’s permission of magnetic field. Determines speed of
light. (Physical Interpretation of Mass and Spacetime,
Section 3.2)
Vacuum Permittivity (ε₀): Physical constant
quantifying vacuum’s resistance to electric field. Determines speed of
light. (Physical Interpretation of Mass and Spacetime,
Section 3.2)
Vacuum Polarization: The process in quantum
electrodynamics where a strong electric field creates virtual
electron-positron pairs that briefly separate and then annihilate. CWM
reinterprets this as the energy-dependent modification of the vacuum’s
effective impedance due to the screening effect of virtual particles.
(Physical Interpretation of Mass and Spacetime, Section
25.1; POHC document)
Variational Free Energy: Minimized by
self-organizing systems. FEP. (Theory of General Mechanics,
Part III)
Variational Principle: Mathematical principle
deriving dynamics by minimizing/maximizing action. Governs URG
evolution. (Theory of General Mechanics, Part II)
Variable Speed of Light (VSL) Cosmologies: Theories
where speed of light was higher in early universe. CWM leverages as
precedent for evolving constants.
(Physical Interpretation of Mass and Spacetime, Section
24.1)
Velocity: Rate of position change. In CWM, rate and
direction of propagation of frequency patterns.
(Theory of General Mechanics, Part II)
Virtual Particles: Transient, fleeting interactions
within quantum vacuum. In CWM, momentary, unstable excitations of
vacuum’s frequency field. (Theory of General Mechanics,
Part I)
Von Neumann Bottleneck: CPU/memory bottleneck in
traditional computers. QRC aims to overcome.
(Theory of General Mechanics, Part VII)
W and Z Bosons: Mediate weak nuclear force. In CWM,
specific, short-lived resonant frequency patterns.
(Theory of General Mechanics, Part III)
Wave Equation: Describes wave propagation. Central
to modeling frequency patterns in CWM.
(Theory of General Mechanics, Part II)
Wave Function (\(\Psi\)): Mathematical description
of quantum state. In CWM, describes amplitude and phase of frequency
patterns. (Theory of General Mechanics, Part I)
Wave Packet: Localized ‘lump’ of wave energy. All
particles understood as stable wave packets in CWM.
(Theory of General Mechanics, Section 19)
Wave-Particle Duality: Quantum concept. CWM
resolves by stating all matter/energy is fundamentally a wave.
(Theory of General Mechanics, Section 14; Outline Chapter
4.2.1, 6.1)
Wavelength (\(\lambda\)): Spatial period of a
wave. Characterizes frequency patterns.
(Theory of General Mechanics, Part II)
Weak Nuclear Force: Responsible for radioactive
decay. In CWM, describes specific interaction between frequency
patterns. (Theory of General Mechanics, Part III)
WIMP (Weakly Interacting Massive Particle): A
hypothetical class of particles that are candidates for dark matter,
interacting only through gravity and the weak nuclear force.
Wolfram Physics Project (WPP): Models reality as
hypergraph evolution. CWM uses its formalism for the URG.
(Theory of General Mechanics, Section 30.1)
Yang-Mills Mass Gap Problem: A Millennium Prize
Problem in mathematics and physics concerning the existence of a mass
gap in Yang-Mills theory. The POHC claims to resolve this by
reinterpreting “mass gap” as an emergent environmental effect of
confinement, arising from the medium’s impedance to low-frequency
color-charged modes, rather than a fundamental property of the
underlying gapless medium. (POHC document)
Zero-Point Energy: Lowest possible energy of
quantum system. In CWM, fundamental energetic foundation of frequency
universe. (Theory of General Mechanics, Part III)
Zero’s Journey: From Math to Physics: A
foundational document outlining the POHC’s concept of “asymptotic
zero.”
Zitterbewegung: “Trembling motion” of electron. In
CWM, fundamental “computational clock cycle” of elementary particle,
underpinning m=ω.
(Physical Interpretation of Mass and Spacetime, Section 4;
Natural Units: Universe's Hidden Code, Section 4.1)
Bibliography |
Of course. Here is the comprehensive bibliography generated from all
the provided documents, with full citations for the referenced works and
a complete list of the internal documents that form the basis of the
theory. |
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Internal
Documents of the General Mechanics Research Program
Quni. (2025). Critiquing Quantum Discreteness Foundations.
General Mechanics Research Program.
Quni. (2025). *Critiquing Quantum Indeterminism’s
Foundations*. General Mechanics Research Program.
Quni. (2025). *Discrete Lens: A Critique of Quantization as a
Methodological Bias*. General Mechanics Research Program.
Quni. (2025). *Formal Framework for a Non-Local Frequency-Based
Reality*. General Mechanics Research Program.
Quni. (2025). *Grand Suppression: A Historical Review of
Marginalized Scientific Theories*. General Mechanics Research
Program.
Quni. (2025). *Harmonic Basis of Physics: A Unified Research
Program*. General Mechanics Research Program.
Quni. (2025). *Harmonic Resonance Computing (HRC): A New
Paradigm*. General Mechanics Research Program.
Quni. (2025). *Hestenes’ Zitterbewegung Mass Model: A Critical
Review*. General Mechanics Research Program.
Quni. (2025). *I-1: The Abstract Abyss - A Catalogue of
Foundational Failures in the Standard Model*. General Mechanics
Research Program.
Quni. (2025). *I-2: The Cosmological Paradigm in Crisis - A
Catalogue of Foundational Failures in ΛCDM*. General Mechanics
Research Program.
Quni. (2025). *II-4: An Astronomer’s Exile - The Case of Halton
Arp and Redshift Anomalies*. General Mechanics Research Program.
Quni. (2025). *II-6: Other Voices - A Review of Stochastic
Electrodynamics and Bohmian Mechanics*. General Mechanics Research
Program.
Quni. (2025). *III-7: A New Enlightenment - A Harmonic Resolution
to the Standard Model*. General Mechanics Research Program.
Quni. (2025). *III-8: Bootstrap Realized - Towards a
Self-Consistent Universe*. General Mechanics Research Program.
Quni. (2025). *III-9: The Computational Universe and Its
Limits*. General Mechanics Research Program.
Quni. (2025). Natural Units: The Universe’s Hidden Code.
General Mechanics Research Program.
Quni. (2025). *PACO Review and Technical Analysis for Harmonic
Resonance Computing*. General Mechanics Research Program.
Quni. (2025). Physical Determinism of the Prime Numbers.
General Mechanics Research Program.
Quni. (2025). *Physical Interpretation of Mass and Spacetime: A
Wave-Mechanical Refractive Model for Gravity*. General Mechanics
Research Program.
Quni. (2025). Physicalist Proof of the Riemann Hypothesis.
General Mechanics Research Program.
Quni. (2025). *Physics, Mathematics, and Computation: A Unified
Research Program*. General Mechanics Research Program.
Quni. (2025). *POHC: A Geometric Unification of Physics and Number
Theory*. General Mechanics Research Program.
Quni. (2025). POHC: A Unified Physical Theory of Everything.
General Mechanics Research Program.
Quni. (2025). *Principle of Harmonic Closure: Deriving the
Fine-Structure Constant and the Fermion Mass Spectrum*. General
Mechanics Research Program.
Quni. (2025). *Quantization: Discretizing Reality’s Fabric - A
Critical Review*. General Mechanics Research Program.
Quni. (2025). Quantum Harmonic Oscillators for Computation.
General Mechanics Research Program.
Quni. (2025). *Quantum Vacuum’s Harmonic Order: Physicalizing the
Riemann Hypothesis*. General Mechanics Research Program.
Quni. (2025). *Research Plan: A Comparative Analysis of Dissenting
Physics Theories*. General Mechanics Research Program.
Quni. (2025). *Resolution of the Yang-Mills Mass Gap Problem
within a Continuous Medium Ontology*. General Mechanics Research
Program.
Quni. (2025). *Spacetime Algebra: A Reformulation of Modern
Physics*. General Mechanics Research Program.
Quni. (2025). *Theory of General Mechanics: A Process-Based,
Computational Ontology*. General Mechanics Research Program.
Quni. (2025). *Treatise on Clocks and Taxonomies: A Resonant
Complexity Framework for All Phenomena*. General Mechanics Research
Program.
Quni. (2025). *Unified Theory: A Spectral-Geometric Analysis of
the Quantum Vacuum*. General Mechanics Research Program.
Quni. (2025). *Zitterbewegung: Reinterpreting Mass as Confined
Motion*. General Mechanics Research Program.