Energy Phase Observation (EPO): Replacing UFO And UAP With An Attribute-Based Framework For Scientific Classification

Energy Phase Observation

Replacing UFO And UAP With An Attribute-Based Framework For Scientific Classification

DOI: To be assigned

John Swygert

May 12, 2026

Abstract

This paper proposes the term Energy Phase Observation (EPO) as a more disciplined scientific category for events currently described by terms such as UFO or UAP. The older term UFO is scientifically limited because it assumes objecthood, flight, and often carries strong extraterrestrial or cultural associations. The newer term UAP is broader and more careful, but it still primarily classifies uncertainty rather than observable physical behavior. EPO is proposed in lieu of both terms because it begins not with identity, origin, or interpretation, but with measurable attributes: energy, signal, luminosity, motion, field behavior, matter-expression, phase transition, boundary interaction, and observational regime. The EPO framework is intended as a neutral classification method that may be used without requiring adoption of any particular theory, ontology, or explanatory system. It applies not only to anomalous aerial observations, but also to particle accelerators, plasma phenomena, cosmological observations, detector anomalies, material phase transitions, and other events in which energy becomes observable through boundary, phase, medium, or measurement conditions. The goal is not to explain all anomalous phenomena, but to provide a cleaner scientific grammar for recording, classifying, and investigating them.

Body

I. The Problem With UFO And UAP

The term UFO, or unidentified flying object, has never been scientifically ideal.

It assumes too much before investigation begins. It assumes that the observed event is an object. It assumes that the object is flying. It also carries decades of cultural baggage involving aliens, conspiracy, ridicule, hoaxes, entertainment, government secrecy, and public stigma.

For ordinary conversation, UFO is familiar. For scientific classification, it is too contaminated and too narrow.

The term UAP, or unidentified anomalous phenomenon, is an improvement because it avoids some of those assumptions. It no longer requires that the event be an object. It no longer requires that it be flying. It allows for a broader category of unusual observations.

That caution is appropriate.

But UAP still has a weakness. It classifies the event primarily by what is not known rather than by what is observed. It says, in effect: something anomalous was observed, and we do not know what it is.

That is useful for administration. It is not sufficient for scientific classification.

A more scientific category should ask:

What kind of energy was observed?

What kind of signal was detected?

What medium was involved?

What boundary or transition was present?

What phase behavior occurred?

What instruments agreed or disagreed?

What known explanations were excluded?

What domain of physics does the observed attribute pattern suggest?

For that reason, this paper proposes the replacement category:

Energy Phase Observation.

II. Definition Of Energy Phase Observation

Energy Phase Observation (EPO):

An observed event in which energy, signal, light, motion, field behavior, matter-expression, or apparent structure becomes detectable through a change in phase, medium, boundary condition, measurement regime, or equilibrium state, while the underlying cause remains unidentified, incompletely classified, or not yet sufficiently explained.

This definition intentionally avoids premature conclusions.

It does not say the event is alien.

It does not say the event is a craft.

It does not say the event is technological.

It does not say the event is natural.

It does not say the event is supernatural.

It does not say the event is merely a sensor error.

It says only that an observable energetic or signal-bearing event occurred under conditions suggesting a phase, boundary, field, medium, or measurement transition.

This is a better scientific starting point because science advances by describing attributes before assigning identity.

III. Why EPO Is Scientifically Stronger

The scientific value of EPO lies in its restraint.

UFO begins with identity assumptions.

UAP begins with anomaly and uncertainty.

EPO begins with observable behavior.

This difference matters.

If a radar operator, pilot, astronomer, particle physicist, plasma researcher, sensor engineer, or cosmologist observes an event that appears, disappears, accelerates, radiates, refracts, ionizes, decays, splits, merges, fluctuates, shifts frequency, crosses a detector threshold, or becomes visible only under certain conditions, the first scientific question should not be:

What is it?

The first scientific question should be:

What did the event do?

The EPO framework collects the fine attributes of the event before interpretation hardens around it.

An EPO should be classified by attributes such as:

Observed medium: atmosphere, vacuum, plasma, water, material interface, detector chamber, gravitational field, collider environment, cosmological background.

Detected form: visible light, infrared, radar return, electromagnetic pulse, gravitational signature, thermal anomaly, ionization, radiation burst, particle track, plasma glow, sensor-only signal.

Boundary involved: atmospheric layer, electromagnetic boundary, gravitational gradient, plasma sheath, event horizon, material interface, detector threshold, optical boundary, phase-transition regime.

Phase behavior: appearance, disappearance, luminosity change, frequency shift, acceleration shift, discontinuous motion, signal decay, splitting, merging, coherence loss, coherence gain.

Energy behavior: emission, absorption, reflection, amplification, dissipation, containment, sudden release, recombination, quenching, decay.

Motion behavior: stationary, hovering, drifting, accelerating, decelerating, oscillating, transmedium, orbital, discontinuous, directional shift.

Sensor agreement: naked eye, camera, infrared, radar, lidar, satellite, particle detector, gravitational detector, multiple independent systems.

Repeatability: single event, repeated location, repeated condition, laboratory reproducible, cosmological recurrence, statistically clustered.

Known exclusions: aircraft, drone, balloon, meteor, satellite, lens artifact, weather, sensor glitch, plasma discharge, classified craft, biological perception error, data-processing artifact.

This list does not solve the event.

It prevents the event from being discussed carelessly.

Only after attributes are collected should deeper interpretation begin.

IV. Boundary Conditions And Scientific Observation

EPO is a boundary-condition category.

A boundary does not have to mean a wall or surface. In science, a boundary may be physical, electromagnetic, gravitational, atmospheric, optical, thermal, quantum, instrumental, computational, or observational.

Many events become visible only at boundaries.

A luminous atmospheric event may emerge at an electrical or plasma boundary.

A particle collision event may emerge at an energy-density boundary.

A cosmological signal may emerge through an observational horizon or redshift boundary.

A gravitational lensing observation may emerge through the relationship between mass distribution, light path, and observer geometry.

A detector anomaly may emerge at the boundary between event, instrument sensitivity, and data-selection threshold.

A material phase transition may become visible when temperature, pressure, or field conditions cross a threshold.

The event is not merely “unknown.” It is unknown in a structured way.

That structure is where science begins.

V. Gravity As A Simple Example Of Lawful Condition

Gravity is one of the simplest examples of how motion is governed by condition.

A child asks: why does the stone fall?

The ordinary answer is: gravity.

But the deeper answer is that the stone moves according to a structured gradient. “Down” is not merely a direction. Down is the locally experienced path toward the center of a gravitational field or gravity well.

This does not replace general relativity. It does not deny spacetime curvature. It simply notes that motion is not arbitrary. Matter and energy move according to structured conditions.

Gravity shows that observation is never detached from the condition of the system.

If ordinary motion is already governed by gradients, boundaries, and fields, then anomalous motion should also be studied by asking what boundary, medium, field, or measurement regime may be involved.

A strange event should not immediately be forced into identity categories. It should first be analyzed as a conditioned observation.

What field was present?

What gradient was involved?

What medium was crossed?

What boundary did the event appear near?

What instruments detected it?

What conditions made the observation possible?

Those questions are better than speculation.

VI. Light, Particle, Wave, And Observation

Light provides one of the most important analogies for EPO.

The long-standing wave-particle problem shows that light cannot be understood by forcing it into only one category. Light behaves as a wave in propagation and interference, yet appears as localized particle-like events in detection. Classical electromagnetic theory explains light as wave behavior, while quantum theory recognizes photons as discrete quanta of energy and momentum.

This paper does not claim that a photon travels like a physical insect moving up and down along a sinusoidal path. That would be too literal.

The stronger distinction is this:

Propagation expresses wave-like field behavior. Detection localizes a particle-like event.

In other words:

The wave is the dynamic propagation state.

The particle is the localized detection state.

Observation is the boundary at which field behavior becomes an event.

This does not solve every problem in quantum mechanics. It does, however, provide a useful analogy for anomalous observation.

A fleeting or discontinuous event may not always be a stable “thing” in the ordinary object sense. It may be a phase-expression of an underlying field condition, made visible only when measurement localizes some portion of the event.

This may help explain why some anomalous observations appear unstable, sensor-dependent, short-lived, or discontinuous. The observer may not be seeing a conventional object moving through space. The observer may be seeing a boundary-mediated expression of energy becoming briefly detectable.

That is not a final explanation.

It is a disciplined way to ask the next question.

VII. EPO In Particle Accelerators

EPO should not be restricted to aerial events.

Particle accelerators already study energy phase observations in disciplined laboratory form. In high-energy collision environments, particles are accelerated, collided, detected, reconstructed, and interpreted through patterns of energy, momentum, tracks, decay products, radiation, and detector response.

A collider event is not observed like a stone on a table. It is reconstructed from traces.

Matter enters an extreme boundary condition.

The usual state changes.

A different state or interaction appears.

The event rapidly evolves.

New detectable particles or signatures emerge.

The detector records the debris.

Scientists reconstruct the event from attributes.

That is phase observation in a controlled scientific environment.

The difference between a collider event and an uncontrolled atmospheric anomaly is not that one involves phase observation and the other does not. The difference is that the collider event is controlled, instrumented, repeatable, mathematically constrained, and embedded in an established theoretical framework.

The uncontrolled anomaly is usually under-instrumented, sporadic, and interpreted after the fact.

The EPO framework helps bridge that gap by encouraging the same basic discipline:

Do not begin with identity.

Begin with observable attributes.

VIII. EPO In Plasma And Atmospheric Phenomena

Plasma is especially relevant to EPO because it often appears in boundary-rich conditions.

Lightning, auroras, sprites, jets, ionospheric effects, electrical discharges, charged particles, magnetic fields, atmospheric layers, and high-energy luminous events all involve conditions where energy becomes visible through medium, field, and phase behavior.

Many atmospheric events are difficult to classify because they occur briefly, at distance, under poor viewing conditions, or across multiple sensor regimes.

An EPO framework does not require that such events be exotic.

It only requires disciplined description.

Was the event luminous?

Was it thermal?

Was it radar-correlated?

Did it appear near a storm system, atmospheric boundary, charged region, plasma sheath, or electromagnetic disturbance?

Did it leave a track?

Did it accelerate?

Did it decay?

Did it split?

Did it merge?

Did it appear only in infrared?

Was it detected visually but not by radar, or by radar but not visually?

These are not alien questions.

They are scientific questions.

IX. EPO In Cosmology

Cosmology also depends on energy phase observations.

When astronomers observe distant galaxies, gravitational lensing, cosmic background radiation, high-energy jets, gamma-ray bursts, black hole environments, or redshifted light from the early universe, they are not touching the object directly.

They are interpreting energy that has crossed immense distances, passed through gravitational fields, interacted with media, shifted through expansion, and entered a detector.

The observed signal is not the thing itself.

It is the arrival of information through boundary history.

The farther we look, the more important this becomes. At cosmological distances, observation is always boundary-mediated. Light is stretched, bent, absorbed, scattered, delayed, amplified, or redshifted. What arrives is an energetic report shaped by the conditions of its travel.

In this sense, cosmology already teaches the EPO lesson:

We do not observe reality naked. We observe energy after boundary history.

This insight should guide the classification of anomalous events. Instead of rushing toward identity, the scientific method should first reconstruct boundary history.

X. From Mystery To Attribute Science

The public conversation around UFOs and UAPs often becomes trapped in identity.

Are they alien?

Are they secret aircraft?

Are they drones?

Are they plasma?

Are they sensor artifacts?

Are they psychological errors?

Are they disinformation?

These questions are not useless, but they are premature if the attribute set has not been properly collected.

EPO changes the sequence.

First: record the event.

Second: classify the observed attributes.

Third: identify the medium.

Fourth: identify possible boundary conditions.

Fifth: compare sensor regimes.

Sixth: exclude known causes.

Seventh: determine which physics domain is implicated.

Eighth: only then discuss possible identity.

This sequence is more scientific because it resists the temptation to let cultural categories replace observation.

A proper EPO report should not begin with:

Alien craft sighted.

Nor should it begin with:

Unknown object observed.

It should begin with something more like:

A luminous, infrared-detectable, radar-correlated event appeared near an atmospheric boundary, showed discontinuous acceleration, lacked visible exhaust, persisted for a defined interval, was detected by two independent instruments, and disappeared after a phase-like luminosity shift.

That sentence does not solve the event.

But it gives science something to work with.

XI. The EPO Classification Scale

A preliminary EPO classification scale may be useful.

EPO-0: Misidentified Known Event

A known object, system, artifact, or phenomenon misinterpreted under poor conditions.

Examples may include aircraft, drones, balloons, satellites, meteors, reflections, lens artifacts, weather, or processing errors.

EPO-1: Single-Sensor Anomalous Event

An event detected by one sensor, one observer, or one recording method, with insufficient corroboration.

This may be interesting, but it remains weak evidence.

EPO-2: Multi-Sensor Anomalous Event

An event detected by more than one independent system, but with incomplete boundary, environmental, or instrumental data.

This is stronger than EPO-1, but still limited.

EPO-3: Boundary-Correlated Event

An event detected at or near a known physical, atmospheric, electromagnetic, gravitational, plasma, material, optical, or detector boundary.

At this level, boundary conditions become scientifically relevant.

EPO-4: Phase-Behavior Event

An event showing appearance, disappearance, splitting, merging, luminosity shift, frequency transition, discontinuous motion, coherence change, or behavior consistent with a phase-state or measurement-regime transition.

This is where EPO becomes especially useful.

EPO-5: Reproducible Or Predictively Clustered Event

An event that occurs under repeatable conditions or statistically clusters around identifiable boundary states, environmental conditions, detector regimes, or field interactions.

At this level, the event becomes scientifically valuable.

EPO-6: Laboratory-Constrained Phase Observation

An event produced or reproduced under controlled conditions, as in particle-collision, plasma, material, electromagnetic, thermal, gravitational, or high-energy experimental systems.

At this level, the event becomes experimentally usable.

This scale separates mystery from scientific quality.

An EPO-1 event may be interesting but weak.

An EPO-3 event begins to implicate boundary conditions.

An EPO-5 event becomes scientifically valuable.

An EPO-6 event becomes experimentally usable.

This is the move that UFO and UAP language cannot easily make.

XII. Why This Matters

The world does not need more sensational language for anomalous events. It needs better categories.

Bad categories produce bad arguments.

If the only choices are alien craft, government secret, hoax, weather, sensor error, or nothing, then the scientific middle is lost.

EPO restores the middle.

It permits a serious observer to say:

Something was observed.

The observation had energy attributes.

The event behaved as if a boundary, phase, medium, or measurement transition may have been involved.

The cause is unknown.

The proper next step is attribute classification, not cultural interpretation.

That is how the subject becomes scientifically respectable.

It also allows serious study to move beyond aerial phenomena. The same category can be applied to particle collisions, plasma events, cosmological signals, detector anomalies, material phase transitions, electromagnetic field events, atmospheric events, and gravitational boundary observations.

EPO is therefore not merely a replacement term.

It is a broader observational grammar.

Conclusion

UFO and UAP have served historical and administrative purposes, but they are inadequate for the next stage of scientific investigation.

UFO carries assumptions and cultural baggage. UAP is more careful but remains too vague. Both terms classify uncertainty more than observable structure.

Energy Phase Observation (EPO) is proposed as a better scientific term because it begins with measurable behavior: energy, signal, light, motion, field interaction, matter-expression, phase transition, boundary condition, and measurement regime.

The EPO framework asks investigators to stop beginning with identity and begin instead with attributes.

What was detected?

Through what medium?

At what boundary?

With what phase behavior?

By which instruments?

Under what conditions?

With what exclusions?

Toward what physics does the pattern point?

This approach does not solve anomalous phenomena. It makes them more scientifically approachable.

The goal is not to make mystery larger. The goal is to make observation cleaner.

A disciplined science of anomalous events should not begin by asking whether the unknown is alien, artificial, natural, or impossible.

It should begin by asking:

What phase of energy became visible, and under what boundary condition did it appear?

That is the purpose of EPO.

References

NASA. “UAP.” NASA Science. NASA describes UAP as observations of events in the sky that cannot be identified as aircraft or known natural phenomena from a scientific perspective and emphasizes data collection for scientific study.

NASA. “NASA to Release, Discuss Unidentified Anomalous Phenomena Report.” September 12, 2023. NASA states that limited high-quality observations make firm scientific conclusions about UAP difficult.

NASA. “UPDATE: NASA Shares UAP Independent Study Report; Names Director.” September 14, 2023. NASA announced a UAP research director and framed the subject through scientific investigation and interagency study.

Britannica. “Wave-particle duality.” Summary of light and matter exhibiting both wave-like and particle-like characteristics, including Einstein, Compton, de Broglie, and Bohr’s complementarity.

Britannica. “Light — Quantum theory of light.” Discussion of interference, photon hypothesis, single-photon behavior, and the wave-particle problem.

CERN. “The Large Hadron Collider.” CERN describes the LHC as the world’s largest and most powerful particle accelerator, colliding high-energy proton or ion beams at detector sites.

CERN. “ATLAS.” CERN describes ATLAS as a general-purpose LHC detector that records paths, momentum, and energy of particles produced by collisions.

CERN. “Heavy ions and quark-gluon plasma.” CERN explains how heavy-ion collisions recreate conditions similar to the early universe and produce quark-gluon plasma.