When Light Breaks Frame: Superluminality as Metaphor: 4 Seeing the Frame: Light, Limit, and Language

We have traced the drama of “superluminal propagation” from headline scandal to semantic revelation. We have seen that speed, signal, and limit are not mere measurements but the pillars of a metaphorical edifice, a linguistic architecture that orders what counts as motion, causality, and possibility. And we have observed that when this architecture is strained, the apparent anomaly is never physical — it is discursive.

To see the frame is to recognise that physics, for all its precision, is a language performing its own ontology. Constants such as the speed of light do not simply constrain the universe; they constrain the descriptions that render the universe intelligible. They are rules of grammar, punctuation of potential, scaffolds for reasoning. And when “superluminal” effects appear, they are not transgressions of law but signals that the grammar has encountered configurations it cannot gracefully parse.

Relational ontology offers an alternative lens. Here, “propagation” is not the movement of a thing across space but the reconfiguration of relation within a system. Simultaneity is primary; sequence is secondary. Alignment precedes transmission. Viewed this way, the cosmos is not a stage for actors racing past limits but a choreography of potentials actualising in coordination, a symphony whose score is not measured in miles per second but in patterns of coherence.

Light itself, long treated as both messenger and measure, exemplifies this double role. When it appears to outrun itself, it is not a lawbreaker but a mirror reflecting the limitations of our metaphors. It reminds us that what we see through is inseparable from what we see with. Every “violation” is simultaneously a revelation: the universe is always more relational than our language allows, always more aligned than our sequence permits.

To see the frame is to step back from the spectacle of scandal and recognise the architecture beneath. It is to realise that the cosmos is drawn not only by physical law but by the metaphors that give law its intelligibility. And in doing so, we glimpse a quieter truth: the limits of speed are not the limits of reality, but the limits of description.

When Light Breaks Frame: Superluminality as Metaphor: 1 The Scandal of Speed: When Light Appears to Cheat

Every few years, physics appears to flirt with transgression. A new experiment, a novel measurement, a light curve that seems to arrive too early or decay too fast — and the headlines whisper the same forbidden phrase: faster than light. The announcement is always accompanied by the same ritual gestures: a hushed fascination, a faint sense of cosmic impropriety, followed by a hasty reassurance that no physical laws have been broken.

But the real drama is not physical; it is linguistic. “Superluminal propagation” is less an event in nature than a scandal in discourse — the moment when the metaphors that sustain physics momentarily lose their grip. The universe does not blush at such reports; only our descriptions do.

Light speed is not simply a number; it is the measure that organises modern physics’ sense of order itself. It defines the scale of simultaneity, causality, and even possibility. To exceed it is to exit the architecture of intelligibility that physics has built around it. The phrase “nothing can travel faster than light” functions less as an empirical claim than as a grammatical rule of the cosmos — a constraint on how motion, signal, and event can be said to relate.

Hence the drama. “Superluminal propagation” does not suggest that nature has misbehaved, but that language has. The scandal of speed is the scandal of metaphor: that a conceptual system framed in terms of movement through space should find itself unable to describe relations that do not conform to movement at all.

The very terms of physics betray their figurative origins. Speed presupposes a traversable distance and a measurable interval. Propagation presumes a medium that carries something from here to there. Limit implies an external boundary, a frontier to be tested. These metaphors stabilise the world as a scene of discrete entities and causal transmissions — an ontology of things moving across an empty stage. Within such a frame, light speed becomes the ultimate stage direction: “no actor may exit faster than this.”

When “superluminal” effects appear, the audience gasps because the play seems to violate its own script. But perhaps what we witness is not defiance of law, only a miscasting of relation. The cosmos has not changed character; our staging has momentarily collapsed under its own metaphors.

To treat this properly, we would need to ask not what is moving faster than light, but what construal makes it appear so. For every scandal in physics hides a misalignment of meaning: a case where relational simultaneity is mistaken for sequential motion, where alignment is narrated as travel. The scandal of speed, then, is the scandal of our insistence that all relation must be measured in miles per second.

Physics as Reflexive Alignment

Physics is often imagined as an external gaze: a detached account of the universe “out there,” written from a neutral standpoint. The scientist is cast as observer, the cosmos as object, and the theory as mirror. But this picture is misleading. Physics is not outside the world it describes—it is one of the ways the world reflexively aligns itself through symbolic construal. Physics is not a commentary on the cosmos; it is the cosmos staging a commentary on itself.

The Problem with the View from Nowhere

The myth of objectivity in physics rests on the fantasy of the “view from nowhere.” It suggests that theories can float above situated practices, providing a pure account of reality as it is. This misrecognises the reflexive nature of construal. Every theory is produced within a system of practices, technologies, languages, and instruments. Every measurement is an act of construal, cutting potential into actualities. Every equation is a symbolic alignment shaped within history, culture, and collective life.

To imagine that physics is detached from this reflexive context is to erase the very conditions that make it possible. Theories do not simply describe the world—they participate in it. They reorganise practices, scaffold technologies, and reshape horizons of meaning. Physics is not an outside perspective on reality but an inside process through which reality aligns itself symbolically.

Reframing: Reflexive Alignment

From a relational ontological perspective, physics is reflexive alignment: the cosmos cutting itself symbolically through human construal. Theories emerge not as mirrors but as alignments—ways of staging regularities, potentialities, and possibilities in symbolic form. They are reflexive in two senses: they arise from within the cosmos, and they act back upon it, reconfiguring how events unfold, how possibilities are realised, how practices are coordinated.

Physics is thus part of the world’s own reflexive self-organisation. It is not knowledge standing apart from being; it is being cutting itself symbolically, staging new alignments of meaning and matter.

Expansion: From Alignment to Self-Construal

Examples abound. The invention of relativity is not simply a recognition of how space and time “really are.” It is a reflexive re-alignment: new symbolic cuts that reshape how simultaneity, velocity, and causality can be construed. This alignment feeds back into the cosmos through technologies—satellite systems, particle accelerators, nuclear energy—that reconfigure both matter and meaning.

Quantum mechanics, likewise, is not an external map of an already-existing domain. It is a reflexive architecture for aligning indeterminacy, probability, and measurement. It is the cosmos symbolically staging its own systemic openness through human practice, and then looping back through technologies that transform material and social life.

Seeing physics this way allows us to grasp its cultural role as well. Physics does not simply add facts to a storehouse of knowledge; it generates symbolic alignments that re-situate humanity’s place in the cosmos. It gives shape to collective imaginaries—from Newton’s clockwork determinism to the quantum openness of possibility. Each alignment is both descriptive and world-making, both theoretical and practical, both symbolic and material.

Closure: The Cosmos Aligning Itself

Physics is not an external gaze upon a passive universe. It is a reflexive practice through which the universe symbolically aligns itself. Theories are not windows onto reality but scaffolds of self-construal, architectures in which the cosmos stages its own symbolic cut.

To see physics this way is to grasp its radical intimacy. We are not outsiders looking in; we are participants in the cosmos’s own reflexive alignment, its symbolic self-articulation. Physics is the cosmos, through us, aligning itself to itself.

Physics as Invention of Possibility

Physics is often narrated as a story of discovery: truths hidden in nature, gradually uncovered by human ingenuity. Newton “discovered” gravity, Einstein “discovered” relativity, quantum physicists “discovered” uncertainty. But this narrative of revelation conceals more than it reveals. Physics is not a slow unveiling of a prewritten script; it is an invention of new symbolic possibilities. Each theoretical shift is not the discovery of an eternal truth but the creation of new architectures through which the world can be construed, acted on, and lived within.

The Problem with Discovery

The discovery narrative rests on an absolutising metaphor: that reality contains timeless structures waiting to be unearthed. Physics, in this telling, is a kind of archaeology of the cosmos. But this obscures the active, constructive, and inventive labour of theory. When Newton articulated his laws of motion, he did not “find” them inscribed in nature. He invented a symbolic order that made determinism a systemic possibility—a scaffold for prediction, navigation, and mechanical design.

Treating physics as discovery also traps us in an outdated epistemology: the idea that knowledge passively reflects reality. This ignores the generativity of construal. Theories are not mirrors but symbolic architectures. They do not simply correspond; they reorganise potential. To treat them as discoveries is to erase the creativity of invention, the reflexive labour by which humans and cosmos co-construct new conditions of possibility.

Reframing: Physics as Invention

From a relational ontological perspective, physics is invention: the cutting of symbolic potential into new architectures of alignment. Newton did not find determinism—he invented it as a systemic possibility. Einstein did not uncover relativity—he invented simultaneity as perspectival and velocity-dependent. Quantum theorists did not stumble on indeterminacy—they invented it as a systemic condition for describing phenomena.

These inventions are not arbitrary; they are anchored in the relational interplay of meaning and matter. But they are inventions nonetheless: new ways of staging reality, new scaffolds for prediction and coordination, new symbolic architectures for collective life.

Expansion: Inventions that Restructure Worlds

Thinking of physics as invention reveals the creativity at the heart of its practice. Each invention reorganises not only scientific discourse but entire cultural horizons. Newton’s mechanics invented a world of calculable regularity, birthing the modern machine age. Einstein’s relativity invented a cosmos without absolute simultaneity, transforming our conceptions of time, space, and causality. Quantum theory invented systemic indeterminacy, seeding a century of technological revolutions from semiconductors to quantum computing.

These are not merely descriptive shifts; they are world-inventing. They create new symbolic possibilities that cascade outward into practice, culture, and imagination. They alter what it means to act, to predict, to intervene. Physics, in this sense, is not a lens onto a fixed reality but a forge in which new symbolic conditions of reality are continuously hammered out.

Closure: The Generativity of Physics

To frame physics as invention is to release it from the myth of discovery and to acknowledge its creative power. Physics is not the passive uncovering of a hidden order but the active invention of symbolic architectures that restructure possibility itself. Each theoretical advance is a new way for the cosmos to construe itself through us—new scaffolds for meaning, matter, and coordination.

Physics is not archaeology; it is architecture. It is not a revelation of what always was, but an invention of what can be.

Physics as Symbolic Architecture

Physics has long narrated itself as the discipline that reveals reality’s inner workings. Its metaphors are of unveiling, discovery, penetration into the hidden core of the cosmos. The physicist is cast as a kind of explorer, prying open nature’s secrets and recording what is found inside. From Newton’s divine mechanic, to Einstein’s geometric poet, to the string theorist’s virtuoso of hidden dimensions, the image repeats: physics mirrors the real.

This narrative is powerful, but it rests on an ontological mistake. It treats symbolic architecture as ontological furniture. That is, it confuses our ways of construing possibility with the structures of being itself. Equations are taken not as symbolic cuts through potential, but as inscriptions of the world’s literal blueprint.

Relational ontology allows us to reframe this. A system is not a hidden entity waiting to be unveiled; it is a theory of possible instances, a structured potential. When physicists produce models and equations, they are not deciphering reality’s code but staging possible construals of alignment between meaning and event. A theory is a scaffolding for symbolic coordination, not a mirror of nature.

If we look at the history of physics through this lens, its “progress” appears in a new light.

• Classical mechanics construed reality as a deterministic apparatus. Motion was coordinated through force, time, and mass, aligning the symbolic cut of cause-and-effect with the experience of regularity.

• Relativity rebuilt the scaffolding in geometric terms. Events were aligned with curvature, simultaneity was cut perspectivally, and the architecture shifted from force to spacetime.

• Quantum theory staged yet another cut: potential itself construed as probabilistic, systemic possibilities actualised in perspectival events.

In each case, what is at stake is not unveiling but reorganising symbolic possibility. Physics invents new architectures that allow us to construe, coordinate, and extend our horizons of potential.

This does not make physics less powerful — quite the opposite. Its achievements are real not because they mirror nature, but because they reorganise how meaning and matter can align. A successful theory is one that scaffolds new forms of construal: new instruments, new practices, new collective myths of matter. Newton’s cosmos of clockwork gears, Einstein’s fabric of spacetime, Feynman’s sum-over-histories — each of these is less a description than a symbolic cosmos in its own right.

What of physics today? String theory is often dismissed as untestable speculation. But perhaps the deeper issue is not empirical but ontological. Its talk of hidden strings, higher dimensions, and cosmic landscapes is not the unearthing of an ultimate reality, but the proposal of a new symbolic scaffolding. The relevant question is not whether strings “exist,” but what possibilities of construal they make possible — what new alignments of event and meaning they afford.

This shift in stance carries consequences. It denies physics the lure of absolutisation: the fantasy of a final theory, a theory of everything. No symbolic architecture can close the gap between system and instance, potential and event, meaning and matter. Theories can only ever construe; they cannot transcribe.

But this is not a weakness — it is the very strength of physics. Its vitality lies in its creativity, in the invention of new architectures of construal. To demand that physics mirror reality is to impoverish it, reducing its craft to stenography. To recognise it as symbolic architecture is to restore its dignity as a generative art of possibility.

Physics, then, is not the discovery of what is, but the invention of how we may construe what can be. Its theories are less mirrors than bridges, less secrets uncovered than architectures built. To take physics seriously is not to mistake scaffolding for reality, but to inhabit its architectures reflexively — to see them as cuts in potential, ways of aligning with the world, and symbolic horizons of the real.

1 The Assumption of “Force”

Physics treats force as the engine of reality: an agent embedded in matter, compelling motion, shaping events, and linking cause to effect. Forces are measured, quantified, and described as if they are ontological primitives — invisible levers acting upon the universe.

Yet force is not observed in itself. It is a relational construct, a shorthand for the patterns of interaction between entities as construed within a given frame. When we speak of gravitational, electromagnetic, or nuclear forces, we are describing tendencies and regularities, stabilised by mathematical formalism and experimental setup. Force is a measure of potentiality enacted in context, not a metaphysical agent pushing objects along.

By naturalising force as a thing that acts, physics repeats a familiar misstep: it projects modulation — compulsion, absolute influence — onto what is properly modal, a degree of relational potential actualised under specific conditions. The world does not exert “force” in the way physics imagines; rather, our models organise interactions, creating a vocabulary for patterns that recur across frames.

Recognising force as relational preserves explanatory power while correcting ontology. Motion is not compelled by hidden agents; interactions are interpreted and stabilised through construal. To see the frame is to see that what we call force is a tool for making sense of relational patterns, not a decree imposed on reality itself.

5 Patterns of Construal: Closing the Arc

The critiques of causality, time, information, and symmetry reveal a recurring structure: physics routinely projects relational patterns as absolute features of reality. Initial conditions anchor causality, measurement enacts temporal order, randomness frames what counts as potential, information codifies relational alignment, and symmetry highlights invariants. Each move is a construal; each is treated as decree.

Together, they form a network of hidden scaffolding. What appears as necessity — laws, flows, invariants, or conserved quantities — is in fact the stabilisation of modal relations, shaped by perspective, method, and interpretive choice. The misreading of modalisation as modulation persists as a structural habit, repeated across domains and scales.

Recognising this does not diminish physics’ predictive power or its elegance; it reveals the conditions under which its explanations make sense. The universe is not compelled by absolute decrees, nor does it “contain” information as a substance. Reality presents structured possibilities, and physics slices, measures, and models these possibilities, giving rise to the patterns we observe.

Seeing the frame allows us to step back and reflect on the practice itself. It opens a horizon where the laws, objects, and measurements of physics are not unquestionable givens, but choices and construals that shape our experience of the world. From here, future explorations can follow the same diagnostic lens: examining how foundational metaphors in physics — space, force, energy, and even mathematics — structure understanding, and where relational potential is mistaken for necessity.

In short, this arc exposes a rhythm in physics’ discourse: a dance between the relational and the absolute, the modal and the modulated, the construed and the presumed. To see this rhythm is to see the frame itself.

1 The Assumption of “Causality”

Physics presents the universe as a chain of cause and effect. Every event, every motion, is the consequence of what came before, constrained by immutable laws. Cause is treated as a universal bridge linking past to future, a principle written into the fabric of reality itself.

Yet causality is not observed; it is construed. When we point to one event and declare it the cause of another, we are drawing a cut in the relational potential of the system. This cut is a choice of perspective, a way of organising patterns of dependence, not a decree embedded in the world.

Initial conditions, measurement, and randomness all feed into this construal. What counts as cause depends on where we begin (our “initial conditions”), how we register events (our “measurement”), and which outcomes we treat as structured versus “random.” Causality is not revealed; it is enacted.

By treating causality as an absolute, physics naturalises a perspective-specific pattern, projecting modulation where only modalisation exists. The world does not compel sequences of events in itself; rather, our frameworks select sequences to be treated as compelling. To see the frame is to recognise that the chain of cause and effect is a relational artefact, stabilised by repeated construal, not an ontological law.

1 The Assumption of “Initial Conditions”

Physics divides the world into two parts: the laws, and the initial conditions upon which those laws act. The metaphor is courtroom-like: the law itself stands above, while the specific case begins from the initial state of affairs.

But “initial conditions” are not given by nature. They are a construct of the modeller, a frame placed around some arbitrary “first moment.” To call them “initial” is to smuggle in a linear temporality, as if processes had an absolute beginning, and to elevate causality into a metaphysical principle. What counts as “initial” depends entirely on perspective: one person’s boundary is another’s continuation.

By presupposing initial conditions, physics naturalises a construal. It reifies the starting line of a race that was never marked on the ground. The world is not waiting for laws to act upon its initial states. What we call “initial conditions” are simply cuts in experience — perspectival placements, not ontological features.

The Cosmic Machine

From classical mechanics to popular physics, the universe is often imagined as a machine: deterministic, clockwork, and separable. This metaphor has deep consequences. It imposes linear causality, separability, and an illusory autonomy of objects — concepts at odds with quantum entanglement, nonlocality, and relational emergence. The cosmos is not a machine, but a network of interdependent actualisations. Every event unfolds in relation to potential elsewhere; reality is process, not mechanism, and our metaphors must reflect that.

Quantum Entanglement and the Misplaced Ghost of Einstein

Sabine Hossenfelder asks: did Einstein reject the idea of entanglement? The popular story says yes. The reality is more subtle: Einstein did not deny entanglement as a mathematical feature of quantum theory — he resisted the ontological claim that measurement instantaneously brings reality into being.

The confusion arises because two distinct issues were knotted together in the 1935 Einstein–Podolsky–Rosen paper:

1. The measurement problem — how a quantum system shifts from a potential spread of outcomes to a single observed value.

2. Entanglement — correlation between subsystems such that neither can be fully described in isolation.

Einstein’s critique was directed at (1), not at (2). He found it intolerable that observation itself should be construed as the event that actualises reality, especially if this “update” propagated instantaneously across spacelike separation. Entanglement was a device he and his co-authors used to sharpen the paradox of measurement.

From a relational ontology perspective, the problem is easy to diagnose: a slippage of strata.

• Theory: Quantum mechanics is a system — a structured potential for how particles may be construed.

• Experiment: Measurement protocols instantiate this system, cutting across entangled states to yield determinate values.

• Metaphor: “Spooky action at a distance” reimagines this cut as a physical influence, as if observation itself were a signal racing faster than light.

The last step is the mistake. There is no ghostly signal. There is construal. An entangled system is re-construed when measurement carves out one actualisation from the spread of possibilities. The correlation persists not because one particle “informs” the other, but because both are already positioned within a single systemic potential.

Einstein did not reject entanglement; he rejected conflating a systemic update in construal with a physical process in spacetime. His worry was ontological: that physicists were treating their own act of cutting as if it were the world’s own mysterious self-intervention.

The irony is that Einstein’s complaint remains alive today — not as a flaw in the mathematics, but as a persistent confusion in how we construe it.

So the sharper lesson is not “Einstein was wrong about entanglement” but:

The ghost in quantum mechanics is not action at a distance, but the category mistake of treating construal as if it were causation.