research

Overview

This research integrates two years of independent observational fieldwork with theoretical modeling to investigate reproducible macroscopic photonic coherence structures. These phenomena consistently emerge under geomagnetically stable, low-turbulence boundary-layer conditions. The analytical framework synthesizes principles from plasma physics, nonlinear optics, magnetohydrodynamics, and electromagnetic tensor dynamics to characterize structured energy localization in open-air environments. Emphasis is placed on the spontaneous organization of phase-stabilized light formations and their potential encoding of resonance-governed field symmetries.

Access the published manuscripts:

New! Delaney, S. (2025). Resonance-Restricted Quantum Actualization: Empirical and Theoretical Foundations. Zenodo. DOI: https://doi.org/10.5281/zenodo.15750986 (Published June 26, 2025)

Delaney, S. (2025). Structured Light Phenomena: Resonant Fields in Natural Systems. Zenodo. DOI: https://doi.org/10.5281/zenodo.15328111  (Published May 2, 2025)

Delaney, S. (2025). Resonant Field Geometry in Nature: Structured Light Dynamics. Zenodo. DOI: https://doi.org/10.5281/zenodo.15620234 (Published June 8, 2025)

(This version supersedes "Triadic Field Attractors and Resonant Symmetry in Nature")

Delaney, S. (2025). Acoustic-Photonic Resonance in Nature: Structured Light Dynamics. Zenodo. DOI:  https://doi.org/10.5281/zenodo.15665416 (Published June 15, 2025)

Published In: CERN's Zenodo Research Repository (DOI registered)

Licensed: Creative Commons Attribution 4.0 International Content may be shared or adapted with attribution to Susan Delaney.

Research Type: Independent structured light field observations, empirical resonance analysis, theoretical modeling

Research Domains: Astrophysics · Quantum Field Theory · Nonlinear Optics · Plasma Physics · Electromagnetic Resonance · Mathematical Physics · Geophysics and Space Weather · Consciousness and Field Dynamics · Symbolic Systems and Geometry · Theoretical Cosmology

Keywords: Structured Light · Field Coherence · Mesoscale Resonance · Nonlinear Optics · Quantum Field Theory · Symbolic Field Encoding · Resonance Field Theory · Nonlocal Interactions · Spontaneous Symmetry Breaking · Photonic Coherence · Quantum Coherence · Prime-Indexed Structures · Modular Arithmetic · Nonlinear Optics · Cymatics · Self-Organization · Quantum Field Theory · Plasma Dynamics · Electromagnetic Resonance · Field-Induced Pattern Formation · Environmental Field Interactions · Multisensory Integration · Field Geometry · Acoustic-Photonic Coupling · Phase-Locked Oscillators · Symbolic Geometry Encoding · Nonlocal Information · Prime Number Structures

Theoretical Model - Key Concepts

Think of the universe not as dice rolling randomly, but as an orchestra: 

• Quantum events are notes. 

• Structured fields (like SLP) are the musical score. 

• Only notes that harmonize with the score are allowed to sound. 

This resonance filter constrains and actualizes the quantum “music” we observe.

Central Premise

I propose that quantum outcomes are shaped not by randomness alone, but by resonance constraints that emerge from structured field interactions in Nature.

In other words:

Instead of treating quantum events (like a particle appearing in one location vs another) as purely probabilistic, my model suggests they occur within field-encoded boundaries, similar to how a musical note is constrained by the shape of the instrument or a ripple by the geometry of a pond.

This supports the idea that Nature may “select” outcomes based on resonant compatibility with the larger field structure, what I call Resonance-Restricted Actualization.

Structured Light Phenomena (SLP) as Evidence

I ground this framework in direct empirical observations: structured light events captured in natural settings that exhibit coherent geometry, symmetry, and quantized patterns. These aren’t just anomalies; they follow patterns that suggest nonlocal field coherence.

In my view:

• SLP = Observational signature

• SLD (Structured Light Dynamics) = Theoretical modeling of the underlying field mechanics

Comparison with Standard Quantum Theory

Standard interpretations (e.g., Copenhagen, Many Worlds Interpretation (MWI)) assume that quantum collapse or branching is unconstrained beyond probabilistic rules (Born rule).

My framework challenges that by positing:

• Outcomes occur only when they match the resonance structure of the surrounding field.

• This adds a selection mechanism beyond randomness, rooted in measurable symmetries and coherent field behavior.

This means that:

Quantum events are “actualized” only when they resonate with the underlying field structure, like a key fitting a lock.

Connection to Barandes and Quantum Foundations

I align my work with Jacob Barandes’s philosophy of physics, especially his critique of interpretations that ignore the indivisible, structured nature of quantum reality. My theory echoes his call for a realistic, non-fragmented ontology, one where field coherence matters.

Broader Implications

My model implies:

• Quantum behavior may be guided by large-scale resonant fields, not just local particle interactions.

• Consciousness, perception, and observer roles could be nonlocal participants in this resonance field, similar to tuning forks vibrating in harmony.

This has implications for:

• Quantum measurement theory

• Field-based interpretations of consciousness

• Unified field modeling (e.g., Heim theory connections)

• SLP as an empirical signature of field-based resonance structuring

This model represents a convergence between empirical field observation and foundational questions in quantum theory, resonance, and consciousness.

Read/Download

Resonance-Restricted Quantum Actualization: Empirical and Theoretical Foundations 

Published: June 26, 2025 New! 

Delaney, S. (2025). Resonance-Restricted Quantum Actualization: Empirical and Theoretical Foundations. Zenodo. DOI: https://doi.org/10.5281/zenodo.15750986

Structured light phenomena, defined by reproducible geometric configurations, including triadic node structures and complex non-geometric morphologies, challenge conventional quantum mechanical interpretations grounded in superposition, decoherence, and observer-mediated collapse. Drawing from two years of empirical field observations, symbolic-attractor mapping, and dual-boundary temporal analyses, this study proposes a deterministic, resonance-restricted quantum actualization framework. Indivisible geometric and non-geometric configurations arise intrinsically from nonlocal field dynamics constrained symmetrically at past and future temporal boundaries. The model prioritizes observer-independent actualization driven by global field coherence and symbolic-attractor topologies. Empirical evidence validates deterministic, nonlocal coherence-based actualization, extending quantum foundations and bridging quantum theory with cognitive and information-theoretic disciplines.

Structured Light Phenomena: Resonant Fields in Natural Systems

Published: May 2, 2025

Delaney, S. (2025). Structured Light Phenomena: Resonant Fields in Natural Systems. Zenodo. DOI: https://doi.org/10.5281/zenodo.15328111 

This study investigates Structured Light Phenomena (SLP) observed under geomagnetically stable, low-turbulence conditions. Documented events revealed reproducible photonic structures exhibiting radial coherence, quantized spectral bands and phase-locked spatial organization. Analytical models drawn from magnetohydrodynamics, nonlinear optics and quantum field theory describe structured light phenomena as arising from Alfvénic wave propagation, harmonic resonance structuring and plasma-field interactions. Spectral decomposition demonstrates coherence with Schumann resonance harmonics and geomagnetic flux boundaries, supporting the interpretation of structured light phenomena as self-organized macroscopic coherence states arising from nonlocal electromagnetic coupling and atmospheric boundary-layer resonance. These findings establish a quantitative framework linking photonic coherence to mesoscale plasma dynamics, geophysical field structures and resonance-governed energy localization processes. Quantitative models drawn from plasma physics, nonlinear optics and electromagnetic field theory are applied to evaluate and support the observed phenomena.

Resonant Field Geometry in Nature: Structured Light Dynamics

Published: June 8, 2025

Delaney, S. (2025). Resonant Field Geometry in Nature: Structured Light Dynamics. Zenodo. DOI: https://doi.org/10.5281/zenodo.15620234

Note: This paper supersedes "Triadic Attractors and Resonant Symmetry in Nature"

This study introduces a resonance-based field hypothesis to account for spontaneously emerging structured light geometries observed in uncontrolled outdoor environments absent of artificial stimuli. A sequential set of 15 photographic frames captures the spontaneous emergence of three equidistant, coherently stabilized photonic nodes, with particulate coherence patterns emerging in advance of full nodal stabilization, consistent with resonant coupling behavior. Temporal coherence, geometric regularity, and bifurcation dynamics are interpreted as signatures of a quantized field attractor, governed by symbolic harmonic symmetry and modular arithmetic residue cycles.

Acoustic-Photonic Resonance in Nature: Structured Light Dynamics

Published: June 15, 2025 

Delaney, S. (2025). Acoustic-Photonic Resonance in Nature: Structured Light Dynamics. Zenodo. DOI: https://doi.org/10.5281/zenodo.15665416 

This study presents empirical evidence of acoustic-responsive photonic behavior observed under natural field conditions. A structured beam of light exhibited rhythmic, angular modulation phase-locked to live birdsong, demonstrating dynamic entrainment between airborne acoustic pressure waves and electromagnetic field geometries. The photonic structure’s bidirectional motion, constrained along a dielectric boundary, indicates interaction governed by boundary-layer resonance and phase coherence.

Field Observations Documented during the 2022–2023 Structured Light Research

FAQ

Below are responses to some of the most frequently asked questions about the research, methods and observations. For additional inquiries, please refer to the full publication or contact via the methods listed on the published manuscript.

Q1: What is this research about?
This study investigates structured light phenomena (SLP), coherent light formations that emerged in natural outdoor environments under specific atmospheric and electromagnetic conditions. These patterns displayed measurable structure, symmetry and persistence, suggesting they are not random optical artifacts but field-organized phenomena. The report combines field photography, mathematical modeling, spectral analysis and signal coherence testing to propose that SLPs may represent macroscopic coherence states arising from interactions among light, resonance and environmental field dynamics.

Q2: What makes this research scientifically valuable?
This is the first report to systematically document and model structured light phenomena observed in natural settings with reproducible field evidence, supported by quantitative modeling and both theoretical and spectral analysis [50]. It provides:

• Field data under real-world environmental conditions

• Photographic documentation of novel light morphologies

• Mathematical frameworks to explain coherence and resonance

• Open-access transparency for replication and interdisciplinary dialogue

Full reference list available in the published manuscript.

Q3: Who is behind this research?
The research was independently conducted by Susan Delaney, a published astronomer and field investigator with a long-standing record of contribution to the American Association of Variable Star Observers (AAVSO), as well as NASA-supported and academic collaborative initiatives, including programs such as the Catalina Sky Survey. The research methodology incorporated structured field observation, photometric analysis, scientific classification and interdisciplinary modeling. It adheres to formal scientific standards and emphasizes transparent methodology and publicly accessible results.

Q4: Where can I access the full publications?

The open-access manuscripts are available on CERN's Zenodo Research Platform:

1. Delaney, S. (2025). Resonance-Restricted Quantum Actualization: Empirical and Theoretical Foundations. Zenodo. https://doi.org/10.5281/zenodo.15750986 

2. Delaney, S. (2025). Structured Light Phenomena: Resonant Fields in Natural Systems. Zenodo. https://zenodo.org/records/15328111 

3. Delaney, S. (2025). Resonant Field Geometry in Nature: Structured Light Dynamics. Zenodo. https://zenodo.org/records/15620234

4. Delaney, S. (2025). Acoustic-Photonic Resonance in Nature: Structured Light Dynamics. Zenodo. https://doi.org/10.5281/zenodo.15665416 

Q5: Are Lagrangian models applicable to the systems you study?

This work is grounded in empirical observation, prioritizing high-resolution, reproducible data from structured light events, acoustic interactions, and naturally occurring field dynamics. The objective is to provide rigorously documented evidence that may inform and inspire theoretical development across scientific and interdisciplinary domains. While Lagrangian models are foundational in physics, the phenomena documented here arise in open, resonant environments that do not readily conform to traditional variational assumptions. 

Rather than impose theoretical constraints prematurely, this approach offers a starting point: letting the data speak first. 

All findings are freely shared on Zenodo under a CC BY 4.0 license, in support of open, collaborative, and interdisciplinary science.

Q6: Are these images authentic and unaltered?
Yes. All photographs were captured during original fieldwork using professional equipment under controlled observational conditions. Post-processing was minimal and only used for clarity (e.g., contrast, zoom). No AI enhancement, compositing or generative alteration was used.

Q7: Could these be lens flares or photographic artifacts?
Extensive measures were taken to rule out lens flares, reflections or camera-induced anomalies. These included:

• Capturing control images before and after each event

• Changing lens angles and positions during active observation

• Reproducing the phenomena under consistent environmental parameters

Additionally, the structured geometries and spectral features do not align with the optical signatures of lens flare artifacts, which are typically axis-aligned and lens-dependent.

Q8: What do the phenomena look like to the unaided eye?

When observed directly in the field, the phenomena resemble atmospheric shimmer, similar to the appearance of heat rising from pavement on a hot summer day. However, unlike typical thermal distortions, these formations exhibit prismatic coloration and semi-transparency, similar to optical phenomena such as rainbows, sun dogs or aurora borealis. Under specific geomagnetic and environmental conditions, they may initially appear rectangular or diffuse, but often coalesce into coherently formed geometric structures, at times displaying anthropomorphic characteristics. These observations are reproducible and were documented using grounded field protocols consistent with environmental physics, resonance behavior and nonlinear optical principles.

Q9: Can these phenomena be observed by others?
Yes, under the right conditions. The manuscripts outline environmental cues, time-of-day patterns and atmospheric variables correlated with these events. While not guaranteed, replication is possible using proper observational discipline, high-quality optics and environmental awareness. Further documentation by other independent observers is encouraged.

Q10: Can viewing these phenomena affect vision or perception?
Natural variables such as geomagnetic activity and spectral light modulation may trigger neural entrainment, affecting perception. These effects often subside as the phenomena stabilize into phase-locked forms. This aligns with lab findings by Angelini et al. (2004), found increased phase synchronization in migraine-prone individuals exposed to flickering light, suggesting that visual phase instability can impact sensitive observers. While indoor lab studies offer controlled insights into neural entrainment, they often lack the macroscopic ecological validity of natural environments where multiple variables interact dynamically in Earth system interactions that may not be fully replicable in lab settings, underscoring the importance of field-based research in understanding the full spectrum of human perceptual responses. This may relate to temporal phase sensitivity in the human visual system. 

Q11: What physical principles are involved?

The research draws on principles from nonlinear optics, plasma physics, field theory and resonant systems. Key concepts include:

• Coherence and Interference: Structured patterns suggest spatial or temporal coherence, possibly resulting from resonant interactions or interference among overlapping light fields.

• Electromagnetic Field Coupling: Observed formations exhibit behaviors consistent with mode-locking, harmonic field alignment and standing wave structures, phenomena also found in magnetized plasma environments.

• Plasma Structuring and Stability: The morphology and dynamics of the observed light formations resemble self-organizing behaviors in plasmas, including filamentation, vortices and phase-locked wave patterns.

• Environmental Resonance: Localized resonance conditions, whether acoustic, electromagnetic or atmospheric, may serve as organizing agents for these coherent light structures, enabling energy localization and stability.

Q12: What equations are used in the publications?
The reports employs a combination of classical and applied equations to analyze and support the observed phenomena. These include:

• Spectral Density Estimation (Welch Method): Used to identify persistent harmonic frequencies in environmental recordings, highlighting resonant field behavior.

• Signal Coherence Function: Measures phase relationships between signals across space or time to assess structured coherence in natural settings.

• 3D Structured Field Modeling: Simulates geometric field dynamics that resemble observed formations, supporting the hypothesis of self-organized spatial coherence.

• Helmholtz Resonance Equations: Describe how standing waves form in bounded systems, useful for interpreting acoustic or atmospheric resonance conditions tied to SLPs.

• Alfvén Wave Formulations: Model wave propagation in magnetized plasmas and may provide insight into the coupling of charged particle motion and EM field alignment.

• Fourier Transforms & Frequency-Domain Analysis: Used to decompose light and environmental data into component frequencies, essential for identifying harmonic signatures.

• Gradient Vector Fields & Nonlinear Wave Propagation: Support the modeling of curved or self-reinforcing field structures, offering a mathematical lens for interpreting spiral or nodal formations.

These models are described with examples in the full manuscript, which presents both the equations and explains how they apply to the observed light patterns. The manuscript walks through how these models connect what was seen in the field to real-world physics. Scroll below to view a Reference Table that outlines the mathematical framework underlying the research.

Q13: What characteristics are visible in the photographic data and what physics principles do they reflect?
The photographic datasets reveal reproducible, structured light morphologies that align with known physical phenomena:

• Spirals: Suggest scale-invariant symmetry and rotational dynamics, consistent with Alfvén waveforms, plasma vortices or logarithmic spiral propagation in non-Euclidean systems.

• Hexagons and Polygonal Tilings: Reflect field self-organization as seen in Bénard convection cells, plasma crystals or standing EM field modes.

• Concentric Rings: Indicate spherical wavefronts and resonance cavity behavior, possibly linked to Helmholtz oscillations or field nodality.

• Interference Fringes and Nodal Lines: Result from phase-coherent superposition of wavefronts, suggesting interference patterns or field coupling.

• Radial and Axial Symmetries: Resemble standing wave modes around a central force, supporting hypotheses of spherical or cylindrical field boundaries.

• Sharp Edge Boundaries: May represent optical phase transitions or coherent domain boundaries in nonlinear media.

• Localized Color Bands: Suggest spectral dispersion, thin-film interference or refractive index variation, possibly from atmospheric or energetic field gradients.

These traits reinforce the hypothesis that the phenomena are not visual illusions or artifacts but physical light structures influenced by real-time field dynamics.

Q14: Is the full dataset or raw image series available?
The published manuscripts include curated selections of representative images and analysis. The full photographic datasets are not publicly available. At this time, no additional image access is being offered. The publications are shared openly to support scientific curiosity and public insight and the core findings remain freely accessible through the published reports.

Q15: Are these phenomena related to nonhuman intelligence (NHI), perception or consciousness?
The reports explore whether structured light phenomena may reflect nonlocal coherence states: organized field behaviors, potentially plasma-mediated, arising from phase-aligned energy, spatial memory and resonance interactions. While the study does not claim evidence of sentient or autonomous intelligence, it considers whether these formations represent a form of distributed field organization at the edge of known physical, neurocognitive and consciousness-related processes. Equations and analysis in the manuscriptsreference quantum projection, spectral encoding and resonance-based perceptual and consciousness modulation. These ideas intersect with emerging models in consciousness studies, quantum biology and field-coupled cognition. All discussion remains grounded in physical observations and referenced scientific frameworks.

Alternatively, some researchers have proposed that coherence, memory and symmetry in natural systems may be signatures of distributed intelligence or awareness encoded through nonlocal dynamics. In this context, structured light formations could be interpreted as emergent expressions of field-based cognition, phase-locked plasma dynamics or holographic information storage. The manuscripts offer no definitive stance but invites interdisciplinary dialogue that bridges physics, neuroscience, consciousness research and models of perception as a resonant, participatory process.

Q16: Is this related to UFOs or unexplained aerial phenomena (UAP)?

The phenomena documented in this study are interpreted through the lens of terrestrial physics and environmental field dynamics. All observations were reproducible, consistent with geomagnetic and atmospheric conditions and captured using grounded field methodology. The analysis draws on classical and modern frameworks in physics, including wave mechanics, resonance theory, electromagnetic coherence and nonlinear optics, to explore the behavior of structured light using well-established scientific principles. No claims are made regarding extraterrestrial technologies or unknown aerial craft. 

In light of the U.S. Department of Defense's 2020 public acknowledgment of UAP videos and its earlier investigation under the Advanced Aerospace Threat Identification Program (AATIP) as legitimate subjects of investigation, the need for rigorous, evidence-based study of anomalous atmospheric phenomena has grown. This research is a reproducible, physics-based framework grounded in field data, mathematical modeling and coherent pattern recognition.

Q17: Is the video on this page a UAP or lens artifact?

No, this slow-motion sequence presents a frame-by-frame extraction of a naturally occurring triadic resonance event, recorded during fieldwork at a dielectric interface on March 21, 2023. The observed structure is neither a UAP nor a lens artifact; it is an optical recording of a spontaneous field resonance event captured under stable, boundary-layer environmental conditions. It is interpreted as an emergent, resonance-stabilized attractor governed by symbolic symmetry constraints and modular arithmetic resonance. Full-frame analysis and mathematical modeling are detailed in the published manuscript.  All visual materials are shared for educational and scientific purposes as part of an ongoing empirical and theoretical investigation into structured resonance phenomena in natural systems.

Q18: Does this work intersect with spiritual or experiential perspectives on light and unity?
While grounded in a rigorous scientific framework, its focus on resonance, coherence and nonlocal interaction may speak to those engaged in contemplative or metaphysical traditions. Structured light phenomena evoke a sense of unity that transcends conventional categories. These coherent field structures, emerging under geomagnetic and atmospheric harmony, reflect long-held ideas about the interplay between the visible and the invisible, the material and the immaterial. 

Beyond its empirical framework, this research invites inquiry into the role of perception, coherence and consciousness in the organization of field-aligned phenomena, potentially linking physical resonance to cognitive, experiential, metaphysical, philosophical, spiritual and contemplative domains. It proposes that light may not only be seen but also felt; structured not solely by optics but by the resonant intelligence within the living systems of the Cosmos. This interpretation encourages continued reflection on how perception, resonance and coherence may converge to reveal both scientific order and spiritual insight through resonant patterns of light. These investigations were not separate, they evolved in parallel. 

My early writings at luxflow.tumblr.com describe many of the same coherent light structures and field behaviors that later became the basis for formal scientific modeling. What began as direct perception of order and coherence in Nature was gradually articulated using the language of nonlinear optics, plasma structuring and field resonance. This work welcomes readers from all backgrounds: scientific, spiritual, philosophical, or interdisciplinary. It offers an open framework through which the behavior of light, coherence and resonance can be explored as both physical phenomena and meaningful patterns, encountered through observation, analysis and personal reflection.

Q19: Are you paid for this work?
I engage with NASA, ESA and academic classification projects to access high-value datasets that directly inform my independent research in structured light phenomena, field resonance and theoretical astrophysics. These collaborations are mutually beneficial: my contributions advance institutional science while supporting the development of my own models and peer-reviewed publications. This work is a commitment to scientific discovery; contributions are voluntary. 

Proceeds from my e-commerce site help support ongoing fieldwork, equipment costs and the open-access publication of independent scientific research. Please note that product purchases are not processed on this site. All sales are securely fulfilled externally at design.imagineittech.com powered by Fine Art America.

If you reference or build upon this research, please cite it as:

APA Style:

Delaney, S. (2025). Resonance-Restricted Quantum Actualization: Empirical and Theoretical Foundations. Zenodo. DOI:  https://doi.org/10.5281/zenodo.15750986

Delaney, S. (2025). Structured Light Phenomena: Resonant Fields in Natural Systems. Zenodo. DOI: https://doi.org/10.5281/zenodo.15328111

Delaney, S. (2025-06). Resonant Field Geometry in Nature: Structured Light Dynamics. Zenodo. DOI: https://doi.org/10.5281/zenodo.15620234

Delaney, S. (2025). Acoustic-Photonic Resonance in Nature: Structured Light Dynamics. Zenodo. DOI: https://doi.org/10.5281/zenodo.15665416

BibTeX Style:

@misc{delaney_2025_15750986,

  author       = {Delaney, Susan},

  title        = {Resonance-Restricted Quantum Actualization:

                    Empirical and Theoretical Foundations},

  month        = jun,

  year         = 2025,

  publisher    = {Zenodo},

  doi          = {10.5281/zenodo.15750986},

  url          = {https://doi.org/10.5281/zenodo.15750986},

}

@misc{delaney_2025_15328111

  author       = {Delaney, Susan},

  title        = {Structured Light Phenomena: Resonant Fields in

                    Natural Systems},

  month        = may,

  year         = 2025,

  publisher    = {Zenodo},

  version      = {4},

  doi          = {10.5281/zenodo.15328111},

  url          = {https://doi.org/10.5281/zenodo.15328111}

}

@misc{delaney_2025_15620234,

  author       = {Delaney, Susan},

  title        = {Resonant Field Geometry in Nature: Structured

                    Light Dynamics},

  month        = jun,

  year         = 2025,

  publisher    = {Zenodo},

  version      = {3},

  doi          = {10.5281/zenodo.15620234},

  url          = {https://doi.org/10.5281/zenodo.15620234}

}

@misc{delaney_2025_15665416,

  author       = {Delaney, Susan},

  title       = {Acoustic-Photonic Resonance in Nature: Structured

                    Light Dynamics },

  month       = jun,

  year         = 2025,

  publisher    = {Zenodo},

  version      = {1},

  doi          = {10.5281/zenodo.15665416},

  url          = {https://doi.org/10.5281/zenodo.15665416],

}

Note: This work is independently authored and publicly archived for open scientific access. All figures, models, and analysis are original and may be referenced with attribution (CC BY 4.0).

Glossary of Scientific Terms and Phenomena

Alfvén Wave

A low-frequency electromagnetic wave in a magnetized plasma, resulting from the restoring force of magnetic tension. Named after Hannes Alfvén, these waves are central to plasma transport and structure formation.

Alfvénic Wave Propagation

The movement of transverse waves along magnetic field lines in plasmas, a key feature of space and atmospheric plasma behavior.

Anisotropic 

A material or substance such as conductivity, refractive index or elasticity vary depending on the direction in which they are measured, whereas isotropic materials exhibit the same properties in all directions.

Atmospheric Boundary Layer Resonance

A resonance condition occurring within the lowest part of the atmosphere 

(the boundary layer), where surface friction, temperature gradients and field interactions can support standing waves and energy coupling. 

Relevant to the environmental structuring of SLP.

Biophotonic Phenomena

Ultra-weak photon emissions from biological systems. Although generally invisible to the naked eye, these emissions may influence or interact with structured light perception and coherence in certain environments.

Critical Power for Self-Focusing

The minimum power at which a beam of light becomes self-focusing due to nonlinear optical effects.

Eigenmode

A natural pattern or mode of vibration that a system adopts when oscillating at a specific frequency without external driving forces where all parts of the system oscillate in a consistent and predictable way.

Electrogravitics

A theoretical framework proposing a coupling between electromagnetic fields and gravitational forces. Originating from the work of Thomas Townsend Brown, it suggests that high-voltage capacitors might generate lift or modulate gravitational fields via the Biefeld-Brown effect. While this concept remains speculative and scientifically controversial, it continues to appear in alternative propulsion and exotic energy system research.

Electromagnetic Modeling

The application of physical laws, such as Maxwell’s Equations and the Lorentz force, to simulate the behavior of electromagnetic fields and interactions, aiding in the interpretation of structured light behaviors under varying conditions.

Electromagnetic Vortices

Rotational regions within electromagnetic fields that resemble whirlpools. These vortices are often associated with localized coherence, anomalous visual phenomena and structured light effects.

Energy Localization Processes

Physical mechanisms by which energy becomes spatially concentrated within a field or medium, often due to boundary constraints, resonance conditions or nonlinear feedback. In SLP, these processes may drive the emergence of stable photonic structures.

Fourier Transform

A mathematical method used to decompose a signal into its constituent frequencies. This process reveals harmonic structures that may indicate coherent energy behavior and is essential for analyzing the harmonic components of structured light formations.

Fourier Transform Techniques

Mathematical methods to convert time-domain signals into frequency-domain representations.

Fractal Scaling

Self-similar geometric organization across multiple scales, often seen in natural and nonlinear systems.

Gauss’s Law for Magnetism

One of Maxwell's equations that states magnetic field lines form closed loops meaning that the net magnetic flux through any closed surface is always zero. This implies magnetic monopoles do not exist in classical physics.

Geomagnetic Anomaly

A localized deviation from the expected Earth's magnetic field strength or direction. Such anomalies can influence biological systems, visual perception and atmospheric conductivity.

Geomagnetic Flux Boundaries

Transitional zones within the Earth’s magnetic field where field intensity or direction shifts significantly. These boundaries may serve as organizing structures for electromagnetic resonance and coherent energy localization in atmospheric systems.

Harmonic Frequencies

Frequencies that are integer multiples of a fundamental frequency. In electromagnetic phenomena, harmonics arise as a result of resonant systems supporting oscillations at specific intervals with the first harmonic corresponding to the fundamental frequency.

Harmonic Resonance Structuring

Energy organization based on frequency harmonics that reinforce stable patterns through resonance.

Holographic Encoding

Information representation via interference and diffraction patterns, suggesting a distributed and holistic data structure.

Ley Lines (Cultural Concept)

Hypothetical alignments of energy along the Earth's surface. Although not scientifically defined, they conceptually overlap with intersections of telluric currents, Schumann harmonics and electromagnetic vortices in this context.

Lorentz Force

The combined electric and magnetic force acting on a charged particle. This force is fundamental in determining the dynamics of particles within electromagnetic fields.

Macroscopic Coherence States

Large-scale systems where components exhibit collective phase and energy alignment.

Magnetohydrodynamics (MHD)

The study of the dynamics of electrically conducting fluids (such as plasmas) in the presence of magnetic fields. MHD equations describe how magnetic and velocity fields interact, offering insight into large-scale plasma structuring relevant to SLP.

Mesoscale Plasma Dynamics

Plasma behaviors occurring at spatial scales between local micro-interactions and global geomagnetic structures (typically 10s–100s of kilometers). These dynamics mediate energy transfer and structure formation in atmospheric and geospace environments.

Nonlinear Coupling

Interaction where the output is not directly proportional to inputs, common in systems with feedback or high energy density.

Nonlinear Optics

A branch of optics that describes how light interacts with media in ways that depend nonlinearly on light intensity.

Nonlocal Electromagnetic Coupling

Field interactions that are not confined to adjacent regions, suggesting instantaneous or spatially distributed coherence.

Observer-Environment Coherence Coupling

A model proposing that human perception may synchronize with external field conditions to modulate visibility.

Perceptual Resonance

A hypothesis suggesting that an observer's energy field or consciousness may be selectively attuned to structured or coherent light phenomena, thus influencing visual perception or interaction with these phenomena.

Perceptual Resonance Dynamics

Hypothetical feedback loops between human perception and environmental energy fields, suggesting that sensory systems may be selectively entrained to specific resonance bands. These dynamics propose that observer-state and environmental coherence can mutually influence the visibility or structuring of light phenomena.

Phase-Locked Plasma Dynamics
A condition in which oscillating plasma structures maintain a constant phase relationship over time, resulting in stable, coherent behavior across multiple regions of a plasma field. Phase-locking can enable the formation of synchronized wave patterns, filaments or vortices, often observed in magnetized or resonant environments. This dynamic stability is critical to self-organization in plasmas and may play a role in the coherence observed in structured light phenomena.

Phase-Locked Spatial Organization

A state in which multiple points in space exhibit synchronized oscillatory behavior with fixed phase relationships, resulting in coherent, stable structures.

Phi (Φ)

A mathematical constant, approximately equal to 1.618033988749894, derived from the Fibonacci Sequence and widely known as the “Golden Ratio.” Phi (Φ) is associated with fractal scaling, harmonic resonance and self-organizing systems in nature and energetic structures.

Photon Structuring

The spatial or spectral organization of light particles due to coherence, diffraction or field interactions.

Photonic Behavior

The observable patterns, trajectories and properties of photons, particularly under conditions of coherence, refraction, diffraction or resonance.

Photonic Coherence

The degree to which electromagnetic waves (light) maintain fixed phase relationships, enabling interference and structuring.

Plasma Instability

A disturbance in plasma that can lead to the emergence of patterns or turbulence, potentially driving self-organization in atmospheric or solar-plasma conditions.

Plasma-Field Interactions

Dynamics between charged particle systems (plasmas) and electromagnetic fields that influence energy distribution and structure.

Quantized Spectral Bands
Discrete, regularly spaced frequency intervals observed in spectral analysis, often indicative of harmonic or resonant structuring in a system. In this study, these bands align with environmental resonances such as Schumann modes, supporting field-structured energy localization.

Quantum Electrodynamics (QED)

The quantum field theory that describes how light (photons) interacts with matter, particularly with charged particles like electrons. It combines the principles of quantum mechanics and special relativity to explain electromagnetic interactions at the quantum level.

Quantum Field Theory (QFT)

A theoretical framework that unifies quantum mechanics and special relativity, describing particles as excitations in underlying fields. Elements of QFT inform the study’s consideration of nonlocal coupling and coherence in structured light phenomena.

Radial Coherence

A spatial coherence pattern in which wavefronts or energy distributions exhibit consistent phase alignment outward from a central point. In structured light phenomena, radial coherence may reflect stable geometric propagation and symmetry in field-aligned systems.

Resonance-Based Frameworks

Models that propose structured energy phenomena, such as light anomalies, emerge from harmonic alignments between environmental frequencies (e.g., Schumann resonance, solar harmonics).

Resonance-Governed Energy Localization

The confinement of energy into specific spatial or spectral domains through resonance processes.

Schumann Resonance

A set of global electromagnetic resonances between the Earth's surface and the ionosphere, driven primarily by lightning and atmospheric activity, with a primary frequency of approximately 7.83 Hz.

Spectral Analysis

The assessment of light intensity and frequency components, typically using sensors or mathematical transforms, to differentiate structured light formations from noise or random reflections.

Spectral Decomposition

The breakdown of a complex signal into its constituent frequencies for analysis of underlying periodicities.

Standing Wave Formation

A resonance phenomenon where incoming and reflected waves combine to form stationary wave patterns.

Structured Light Event
An observed occurrence of structured light activity under natural conditions, typically brief but reproducible, characterized by coherent luminous patterns or spatially organized light behavior. These events may involve sudden appearance, transformation or dissipation of light formations, often correlated with environmental shifts or transient field interactions. Structured Light Events are discrete observational units within the broader framework of Structured Light Phenomena (SLP), offering insight into the dynamic coupling between natural systems and resonant electromagnetic processes.

Structured Light Formation

A non-random, coherent light pattern observed under natural conditions, often reproducible and exhibiting organized geometry, harmonic layering or dynamic symmetry. Structured light formations may arise in response to specific environmental triggers such as humidity gradients, aerosol density or ionized plasma activity. These individual light events are considered localized manifestations within the broader class of Structured Light Phenomena (SLP) and are hypothesized to result from coherent interactions among atmospheric plasma, electromagnetic fields and resonance-driven energy structuring.

Structured Light Phenomena (SLP)

Naturally occurring, reproducible light formations with coherent geometry and harmonic structure, observed under specific environmental conditions. These phenomena are supported by photographic evidence and analytical modeling and are hypothesized to emerge from interactions among plasma effects, resonant field dynamics and energy coherence in natural systems.

Symmetry-Breaking 

A spontaneous transition from a higher-symmetry state to a lower-symmetry configuration, often triggered by external conditions or internal instabilities. In field systems, symmetry-breaking can give rise to ordered structures such as nodes, patterns, or attractor geometries. It is a fundamental mechanism in pattern formation, seen across physics, biology, and resonance-based phenomena.

Tokamaks

Toroidal (doughnut-shaped) experimental devices designed to achieve controlled nuclear fusion by confining plasma using powerful magnetic fields, mimicking processes that power the Sun.

Telluric Current

Natural subsurface electric currents flowing through the Earth’s crust, influenced by factors such as the solar wind, geomagnetic activity and subsurface conductivity. These currents may contribute to the structuring of energy fields.

Transient Luminous Event (TLE)

A short-lived, high-altitude optical phenomenon (e.g., sprites, blue jets, elves) associated with thunderstorms and atmospheric charge imbalances.

Z-pinch

A method of plasma confinement in which an electric current flowing through the plasma generates a magnetic field that compresses it and used in fusion experiments and high energy density physics.

Categorized Glossary

Electromagnetic & Plasma Physics

Alfvén Waves

Transverse waves in magnetized plasmas governed by magnetic tension; enable energy transfer along field lines.
See also: Plasma Self-Organization, Phase-Locked Plasma Dynamics

Birkeland Currents
Longitudinal electric currents aligned with geomagnetic fields in magnetospheric plasmas. These currents contribute to auroral and geospace dynamics.

Schumann Resonance
Global standing electromagnetic waves generated by lightning, constrained between Earth and the ionosphere. These resonances exhibit fundamental modes starting near 7.83 Hz.

Telluric Currents
Naturally induced electric currents flowing through Earth’s crust, responsive to geomagnetic field variations and solar activity.
See also: Geomagnetic Anomaly

Photonics & Field Coherence

Photonic Coherence
The degree of phase correlation between electromagnetic wavefronts over spatial or temporal domains.
Central to the formation of structured light phenomena.

Plasma Self-Organization
Spontaneous formation of structured filaments, vortices or layers within plasma due to nonlinear electromagnetic interactions.
See also: Alfvén Waves, Plasma Instability

Solid-State Photonic Matter
A theoretical phase of light achieved via strong coupling between photons and Rydberg atoms, producing quasi-solid behavior in a photonic medium.
Relevant to speculative models of coherent field structuring.

Quantum Nonlocality & Resonance Dynamics

Nonlocality
A quantum property allowing instantaneous correlation between spatially separated systems or fields.
Referenced in discussions of coherence and consciousness-related field hypotheses.

Resonance
Amplification of oscillatory response when driven at natural system frequencies. Critical to harmonic alignment, phase-locking and energy localization.
See also: Schumann Resonance, Helmholtz Resonance

Standing Waves
Fixed wave patterns arising from interference between counter-propagating waves, forming nodes and antinodes.
Relevant to field-boundary interactions and environmental resonance

Perception & Cognitive Models

Perceptual Holography
A hypothetical model proposing that human perception entrains to, modulates or decodes structured photonic fields similar to a holographic interface.
Related to field-consciousness coupling hypotheses.

Field-Based Data Encoding
The hypothesis that structured light formations may embed spatial or energetic information via frequency, phase or geometric modulation. This aligns with principles from photonic coherence, quantum information theory and resonance-based communication systems.
See also: Spectral Encoding, Quantum Nonlocality

Work in Progress Notice

This page is an actively maintained work in progress. Content is added and revised over time as new findings, clarifications and supporting materials become available. Readers should not treat the information here as static or final; it reflects the most current understanding at the time of publication and may evolve with future updates.

Unless otherwise noted, all content on this page is licensed under Creative Commons Attribution 4.0 International (CC BY 4.0). This means you are welcome to share or adapt the material, provided appropriate credit is given to Susan Delaney, in accordance with the CC BY 4.0 license.