Monday, 9 March 2026

From Myth to Philosophy to Science: 2 The Limits of Myth

Mythic narratives are extraordinarily powerful, yet they operate within a semiotic horizon that constrains reflexivity. Even when myths are richly structured, containing genealogies, cosmic hierarchies, and moral lessons, they do not turn meaning upon itself. To understand why, we must look closely at how meaning functions within myth.


1. Myth Relationality is Narrative-Bound

Myth certainly contains relational meanings:

  • Zeus is king of the gods

  • Gaia is mother of the Titans

  • Kronos is father of Zeus

But in these instances, relational meanings organise narrative events and characters, not the semantic system itself. They are embedded in temporal, agentive stories: births, struggles, triumphs, and divine interventions.

The semiotic orientation remains outward:

  • meanings constrain narratives

  • narratives make experience comprehensible

  • meaning itself remains largely invisible as an object

Even when myths contain abstract notions like “cosmic order” or “destiny,” these concepts are always tied to particular events, agents, or processes.


2. Myth Does Not Generalise Across Domains

Mythic discourse is domain-specific. It interprets:

  • natural phenomena (storms, earthquakes)

  • social phenomena (conflict, kinship, justice)

  • human life cycles (birth, growth, death)

The relational meanings may extend across multiple stories, but they rarely organise the entire experiential field. Each myth explains specific occurrences or patterns within a constrained symbolic space.

In SFL terms:

  • the semantic stratum construes meanings grounded in experience or culturally mediated metaphor

  • the lexicogrammar stratum realises these meanings as narrative events

The congruent semantic potential exists but is not examined — myth uses meanings to generate stories, not to interrogate the meanings themselves.


3. Why Reflexivity Does Not Arise in Myth

Three semiotic factors limit reflexivity in myth:

  1. Narrative embedding: relational meanings function within stories rather than as abstract propositions.

  2. Domain specificity: meanings are tied to particular classes of phenomena, not universal principles.

  3. Authoritative transmission: myths circulate as canonical stories; questioning them is often socially or ritually constrained.

These conditions make it unlikely that myth could self-reflexively examine its own semantic potential. Even highly sophisticated myths, like those of classical Greece, could describe relations among gods and events, but they could not treat relational meanings themselves as phenomena for inquiry.


4. The Semiotic Consequence

By contrast, early Greek philosophy emerges in a context where:

  • myths are already highly systematised

  • multiple symbolic accounts coexist and compete

  • discourse allows argumentation and critique

These conditions create a space in which relational meanings can detach from narrative constraints and begin to organise the experiential field itself.

It is in this detached, highly generalised relational space that semantic reflexivity becomes possible: meaning can now be used to reflect on itself, forming the basis for the earliest philosophical inquiry.


5. Transition to the Next Post

Having established the limits of mythic meaning, the series is now poised to explore the Pre-Socratic innovation.

The next post will trace how thinkers like Thales of Miletus and Heraclitus detached relational meanings from narrative and agentive events, foregrounding principles that organise the totality of experience.

This is the moment when meaning turns on itself, and the horizon of semiotic possibility expands in a way myth never could.

From Myth to Philosophy to Science: 1 The Power of Myth

From the earliest human storytellers to the rich mythic narratives of classical Greece, humans have consistently sought to organise their experiences through symbolic meaning. This symbolic universe is not simply decorative; it is a mechanism for making sense of phenomena in a world that can be vast, unpredictable, and often overwhelming.

At the heart of mythic discourse is lexical metaphor. Through metaphor, concrete experience is reconfigured into symbolic agents, forces, and narratives. Lightning is not just a discharge of electricity — it becomes the wrath of a god. The seasons are not just cycles of growth and decay — they are the mood and motion of deities.

In terms of systemic functional linguistics (SFL), myth operates across strata as follows:

  • Semantic stratum: meanings are construed metaphorically. A force of nature may be construed as an agent, a storm as a wrathful act.

  • Lexicogrammar stratum: these metaphorical meanings are realised in wording that presents them as literal events.

The salient relation in myth is thus:

metaphorical semantic meaning ↔ lexicogrammatical wording

The congruent meanings grounded in direct experience exist in potential but are largely backgrounded; they do not drive the narrative. What matters is how metaphorical meanings are presented in wording to construct a coherent symbolic universe.


Why this matters:

By organising experience symbolically, myth allows humans to project order onto phenomena, to navigate social and physical environments, and to inhabit worlds richer than immediate perception permits. It opens the first horizon of semiotic possibility, a space in which meaning can be manipulated to create worlds, explain events, and coordinate understanding across communities.

Yet, even in its sophistication, mythic discourse is oriented outward. Meaning is used to construe the world, not to interrogate the meanings themselves. Even relational meanings in myth — genealogies, hierarchies, cosmic roles — serve primarily to structure stories, not to examine the semantic potential that underlies them.

As we will see, it is precisely the detachment of relational meanings from narrative constraints, combined with the awareness of competing symbolic accounts, that sets the stage for the reflexive turn that emerges in early Greek philosophy.

From Myth to Philosophy to Science: Introduction

Throughout human history, our capacity for meaning has expanded in remarkable ways. From the earliest myth-makers to the Pre-Socratic philosophers, and onward to the systematic thinkers of modern science, each transformation represents a new configuration of meaning — a new way in which humans can construe, reflect upon, and manipulate the world.

This series, From Myth to Philosophy to Science, traces that progression in five stages:


1. The Power of Myth

Mythic narratives use lexical metaphor to project meaning onto the world. Gods, forces, and events are not mere stories; they are symbolic mechanisms that organise experience, guide action, and embed social knowledge. Meaning is oriented outward, shaping phenomena, while remaining largely invisible as an object of reflection.


2. The Limits of Myth

Even highly structured myths contain relational meanings, but these remain bound to narrative contexts and domain-specific phenomena. Myth cannot fully reflect on its own symbolic potential because its semiotic operations are constrained by storytelling, tradition, and social authority.


3. When Meaning Turns on Itself

The Pre-Socratics introduce semantic reflexivity. Relational meanings are detached from narrative, generalised to apply across the experiential field, and treated as objects of inquiry. Meaning no longer simply organises phenomena — it organises itself, opening the horizon for philosophy.


4. The Birth of Philosophy

Early philosophical discourse systematises reflexive meaning through propositional and argumentative structures. Principles like Heraclitus’ flux or Parmenides’ being are expressed in ways that allow debate, comparison, and refinement. Philosophy formalises semantic reflexivity, producing discursive practices that can interrogate meaning itself.


5. From Philosophy to Science

Grammatical metaphor allows abstract meanings to be nominalised and densely packaged, enabling systematic reasoning and theoretical discourse. Meaning becomes manipulable: principles can be recombined, applied, and tested. Science thus represents the culmination of semiotic expansions that began in myth and matured in philosophy.


The Arc of Semiotic Possibility

The series traces a progression of semiotic horizons:

  • Outward projection: meaning organises phenomena (myth)

  • Reflexive awareness: meaning organises meaning (philosophy)

  • Manipulable abstraction: meaning is formalised for systematic reasoning (science)

At each stage, human possibility expands. New configurations of meaning open new ways of understanding, explaining, and transforming the world.

By following this trajectory, we can see that our capacity for thought, reflection, and theorising is inseparable from the evolving semiotic systems we inhabit. Each innovation in meaning-making is not merely cultural or intellectual; it is a transformation in the very horizon of what is possible.

Worlds Becoming Worlds: The Relational Ontology of Emergent Domains: 5 — The Horizon of Evolving Worlds

Over the previous posts, we have traced the emergence of worlds across strata — physical, biological, cognitive, and symbolic — and examined how nested and artificial domains arise within broader relational contexts. We have seen that:

  • Worlds are relational domains, coherent fields in which phenomena occur, relations unfold, and meaning can be construed.

  • Dependence on conditions does not diminish actuality; it is the grammar of world-generation.

  • Symbolic and artificial domains are not mere abstractions or simulations. They are actualised worlds, expanding the lattice of relational possibility.

In this final post, we step back to view the horizon toward which world-generation points: the ongoing evolution of actuality itself.


1. Worlds as nodes in relational evolution

Every world is a node in a branching lattice of possibility:

  • Physical worlds provide the conditions for chemical and biological emergence.

  • Biological worlds give rise to cognitive and symbolic domains.

  • Symbolic and artificial worlds enable new layers of meaning, interaction, and creation.

Each node is both dependent and autonomous. It inherits conditions from prior strata yet develops its own relational coherence. Worlds are both actualisations and progenitors of further actualisations.

From this perspective, the universe is less a static container of phenomena than a dynamic process of world-generation, continuously creating new domains in which actuality can unfold.


2. Recursive world-generation

World-generation is inherently recursive:

  • Sub-worlds emerge within parent domains.

  • Symbolic and artificial domains can generate their own sub-worlds.

  • Agents within these domains can participate in the creation of entirely new relational fields.

This recursion is open-ended. There is no preordained ceiling on the complexity or novelty of worlds. Each new domain creates the conditions for further domains, enabling the evolution of possibility to accelerate and diversify.


3. Human and technological participation

Humans occupy a unique position in this process:

  • We construct symbolic sub-worlds through language, mathematics, law, and culture.

  • We generate artificial worlds through computation, digital environments, and AI systems.

  • Through reflection and intention, we can participate consciously in world-generation, shaping the conditions and structures of emergent domains.

Our creative activities are not ancillary. They are part of the ontological unfolding of the universe, contributing nodes, sub-worlds, and relational structures that extend actuality itself.


4. The synthesis of worlds

From relational ontology, the distinction between “natural” and “artificial,” “simulation” and “reality,” begins to dissolve:

  • A simulated universe that supports coherent phenomena is already a world.

  • A symbolic or digital domain is fully actualised when relations and meaning emerge within it.

  • All worlds, regardless of origin, participate in the same lattice of relational potential, each generating conditions for further worlds.

The universe is therefore an evolving fabric of worlds, a continuous unfolding of relational possibility in which actuality propagates, diversifies, and complexifies.


5. The horizon of possibility

The horizon of evolving worlds is both open and generative:

  • New physical domains may emerge in the cosmos.

  • Biological evolution continues to produce novel forms of life and cognition.

  • Human and technological creativity expands symbolic and artificial domains.

  • Each world brings the potential for sub-worlds, new phenomena, and unforeseen forms of meaning.

From this vantage, reality is not merely “given” or “observed.” It is an ongoing process of world-generation, in which each actualised domain contributes to the broader evolution of possibility.


6. A concluding reflection

The insight that threads through this series is deceptively simple:

To create a world is to actualise potential relations, generating a coherent domain of phenomena in which meaning, interaction, and novelty can unfold.

Whether through stars, life, mind, culture, or technology, worlds emerge continuously. Each node in this vast lattice is both an inheritance and a gift — a platform from which new worlds may arise.

The simulation hypothesis, symbolic domains, and artificial environments are not curiosities or threats. They are instances of a universal principle: worlds beget worlds, and actuality itself evolves through the ongoing generation of relational domains.

The universe, seen through this lens, is a horizon of possibility, forever becoming, forever creating new worlds.

Worlds Becoming Worlds: The Relational Ontology of Emergent Domains: 4 — Artificial Worlds and the Explicit Creation of Relational Domains

In the last post, we explored nested worlds and symbolic domains, showing how physical, biological, and cognitive strata give rise to sub-worlds, and how humans construct symbolic arenas — language, law, mathematics, art — that function as fully actualised relational domains.

We now turn to an especially illuminating case: artificial and digital worlds. Unlike natural or symbolic worlds, these domains are deliberately designed. They make world-generation explicit, providing a clear lens through which to see how worlds emerge from potential into actuality.


1. From simulation to worldhood

Artificial worlds often begin as simulations:

  • Digital ecosystems replicate environmental processes.

  • Virtual reality environments simulate spatial and sensory experience.

  • AI systems generate interactions within constrained rules.

At first glance, such worlds seem dependent and derivative, subordinate to their physical or computational substrate. Yet relational ontology reveals a striking insight: once a domain is coherent, actualised, and capable of supporting phenomena, it constitutes a world in its own right.

  • Events occur, relations unfold, and entities (human or AI) interact within its boundaries.

  • Meaning can be construed: rules are interpreted, strategies developed, and narratives constructed.

  • The world operates autonomously relative to its internal logic, even if it depends on hardware and energy.

In other words, artificial worlds do not merely represent reality; they participate in the ongoing evolution of worlds.


2. The mechanics of world-generation

Artificial worlds highlight the structural principles of world-generation:

  1. Conditions of potentiality

    • Hardware, software, algorithms, and rules define the possible phenomena.

  2. Relational coherence

    • Interactions are governed by internally consistent rules that allow phenomena to unfold intelligibly.

  3. Phenomenal accessibility

    • Agents — human or artificial — can participate, perceive, and act within the domain.

  4. Emergence of novelty

    • New structures, interactions, and patterns can arise from the combination of rules and agency, expanding the relational field beyond the designer’s initial specification.

Artificial worlds, therefore, make explicit the process that occurs implicitly in natural and symbolic worlds: potential becomes actual through relational structuring.


3. Humans as world-generators

Digital and artificial domains offer a clear example of humans as ontological agents:

  • We construct rules, spaces, and interactions.

  • We instantiate phenomena that could not exist without our intervention.

  • We create conditions in which new relations, experiences, and meanings can emerge autonomously.

This reframes creation: generating a digital or virtual environment is not merely coding or designing. It is bringing into being a coherent relational domain — a world.


4. Artificial worlds and the evolution of possibility

Artificial domains also reveal a crucial feature of world-generation: recursive evolution.

  • A virtual environment can support agents capable of constructing sub-worlds.

  • AI systems within simulations may generate unexpected emergent phenomena.

  • Symbolic and technological worlds can proliferate independently, adding new nodes to the lattice of actuality.

In this sense, artificial worlds are microcosms of universal evolution: just as life generated mind and mind generated symbolic culture, human-created worlds generate sub-worlds of novelty and relational complexity.


5. Dependence, autonomy, and actuality

A common objection arises here: “Artificial worlds depend on our hardware and code. Can they really be considered worlds?”

Relational ontology resolves the apparent tension:

  • Dependence is not negation. Just as life depends on chemistry and mind depends on life, artificial domains depend on their conditions without losing actuality.

  • Autonomy arises from internal coherence. Once the domain supports intelligible relations, it functions as a world for its participants, regardless of external control.

  • Actuality is relational, not absolute. A world exists where phenomena can appear, interact, and generate meaning.

Artificial worlds, therefore, extend the principle of world-generation into the realm of conscious design, making explicit a process that operates throughout the cosmos.


6. Toward the horizon

Understanding artificial worlds prepares us for the final synthesis of this series:

  • All worlds — physical, biological, cognitive, symbolic, and artificial — are part of a continuum of relational actualisation.

  • The processes that bring digital environments into being mirror, in principle, the processes by which life, mind, and symbolic culture emerged.

  • The horizon of possibility is not limited to the natural universe; it extends into the domains created by conscious agents, technological or otherwise.

In the final post, we will integrate these insights and explore the broader horizon of evolving worlds, showing how reality itself can be understood as a dynamic lattice of relational domains, continually generating new possibilities.

Worlds Becoming Worlds: The Relational Ontology of Emergent Domains: 3 — Nested Worlds and Symbolic Domains

In the previous post, we explored how worlds arise from conditions of potentiality across multiple strata — physical, biological, cognitive, and symbolic — and how dependence does not diminish actuality. Worlds are actualised relational domains: coherent fields of phenomena in which meaning can be construed and relations can unfold.

We now turn to a crucial development: nested worlds and symbolic domains. Worlds are rarely isolated. More often, they contain other worlds, some embedded within, some abstracted by agents capable of reflection, creation, and construction. Understanding these nested and symbolic worlds illuminates how humans and technology participate in the ongoing evolution of possibility.


1. Nested worlds

Nested worlds are domains of phenomena that emerge within a larger domain, inheriting conditions from the parent world while establishing new relational structures:

  • A forest is a world in which trees, rivers, and wildlife interact.

  • Within it, a termite colony forms a sub-world with its own internal dynamics.

  • Within human societies, neighbourhoods, markets, and institutions form sub-worlds nested in cultural and physical environments.

Each nested world:

  1. Relies on the conditions of the parent domain — the resources, structures, and constraints that enable its emergence.

  2. Maintains relational coherence — its own rules, dynamics, and phenomena must be intelligible from within.

  3. Supports internal meaning-making — agents or processes within the sub-world can interact, evolve, and construe significance.

Nested worlds are thus not illusions. They are fully actualised domains that exist within, and because of, broader relational contexts.


2. Symbolic domains as worlds

Humans introduce a qualitatively new type of nested world: symbolic domains. Unlike physical or biological sub-worlds, these are constructed primarily through meaning, convention, and shared construal:

  • Language creates relational spaces in which ideas can interact, shift, and combine.

  • Mathematics generates abstract structures capable of supporting precise reasoning and exploration.

  • Law, art, religion, and culture create domains with their own phenomena, rules, and histories.

  • Digital environments and simulations instantiate entirely new experiential domains, often with participants who interact as if these domains are “real.”

Symbolic domains depend on lower strata — neural activity, social organisation, physical infrastructure — yet once actualised, they constitute autonomous relational fields. Their reality is no less robust than that of biological or physical domains: phenomena occur, interactions unfold, and meaning emerges.


3. Creation as world-generation

The recognition of nested and symbolic worlds reframes creation. When humans or intelligent systems generate new domains:

  • They instantiate relational potential previously unactualised.

  • They produce coherent sub-worlds within existing worlds, creating arenas for phenomena and meaning.

  • They extend the evolutionary trajectory of possibility, adding new nodes to the ongoing unfolding of worlds.

This includes digital simulations, interactive games, virtual environments, and even sophisticated AI systems: each is a world that participates in the broader evolution of relational actuality.


4. The fractal structure of possibility

Nested worlds and symbolic domains suggest a fractal structure to reality:

  • Worlds contain worlds, which may contain further worlds.

  • Each level is actualised and coherent, yet relies on the conditions of the domains above and below it.

  • Symbolic worlds allow for extraordinary flexibility: entire domains of phenomena can be constructed without altering the physical substrate, yet still support meaningful relations and emergent activity.

From this perspective, the universe itself is not a monolithic block of reality but a dynamic lattice of relational domains, continually generating sub-worlds across strata.


5. Implications for human and technological creation

Recognising humans as participants in world-generation has several consequences:

  1. Ethics and responsibility

    • Creating symbolic or digital worlds is an act of world-generation. The phenomena and relations within them matter.

  2. Innovation as ontological practice

    • Scientific, artistic, and technological work is not merely descriptive; it is generative, actualising new relational domains.

  3. The evolution of meaning

    • Symbolic domains allow for the propagation of ideas, values, and practices, each of which constitutes a microcosm of worldhood within the broader reality.

In short, humans and technology do not merely inhabit worlds. They participate in the creation of worlds, contributing to the ongoing evolution of possibility.


6. Toward artificial and digital worlds

The next post will explore artificial and digital environments in detail. These worlds are especially interesting because they make the process of world-generation explicit: their conditions, structures, and rules are consciously designed, yet once actualised, they function as autonomous relational domains.

In this way, simulations, games, and AI systems are not just metaphors of worldhood. They are early instances of the principle that worlds can emerge from worlds — the principle glimpsed in our discussion of the simulation hypothesis, now fully generalised to human and technological creativity.

Worlds Becoming Worlds: The Relational Ontology of Emergent Domains: 2 — Dependence and Actuality: How Worlds Arise

In the first post of this series, we introduced the concept of a world as a relational domain: a coherent field in which phenomena occur, relations unfold, and meaning can be construed. We also observed that worlds can contain sub-worlds — nested domains of actuality that themselves support phenomena.

The next step is to examine how worlds emerge from conditions of potentiality, and how dependence interacts with actuality. This is crucial: it allows us to understand how worlds can exist, evolve, and generate other worlds without ever becoming “less real.”


1. Dependence does not negate reality

The idea that a phenomenon depends on conditions beyond itself is familiar from everyday experience:

  • Stars exist because nuclear processes occur in stellar cores.

  • Cells exist because chemistry provides molecular interactions.

  • Minds exist because neural networks support perception and construal.

In each case, dependence is a precondition for actuality, not a mark of unreality.

Similarly, a world depends on the conditions that allow its phenomena to emerge:

  • Physical structure provides the basic substrate.

  • Life introduces new levels of relational organisation.

  • Symbolic systems expand the domain of phenomena into abstract and cognitive spaces.

Dependence across strata is the grammar of actuality: worlds are not autonomous in a vacuum, but they are nonetheless fully real within their own relational domains.


2. Stratified potentiality

We can distinguish several strata from which worlds arise, each supporting different kinds of phenomena:

  1. Physical stratum

    • Matter, energy, space-time, and physical laws.

    • Produces phenomena such as planets, stars, and chemical interactions.

    • Worlds at this stratum are the most basic: coherent physical domains.

  2. Biological stratum

    • Organisms, ecosystems, and adaptive processes.

    • Introduces self-organising structures and evolving patterns.

    • Worlds at this stratum are domains in which life emerges and interacts.

  3. Cognitive stratum

    • Minds capable of perception, reflection, and interpretation.

    • Produces phenomena such as intentions, knowledge, and experience.

    • Worlds at this stratum are fields where meaning is construed.

  4. Symbolic stratum

    • Language, mathematics, law, art, digital environments.

    • Generates abstract structures that allow sub-worlds to emerge within human or technological contexts.

    • Worlds at this stratum extend reality into intentionally constructed domains.

Each stratum is built upon the conditions of the lower strata, yet each has its own relational integrity. Higher strata depend on lower ones, but dependence never diminishes the actuality of the phenomena in any stratum.


3. Actualisation as relational emergence

A world is actualised when potential relations become phenomena within a coherent domain. Actualisation is therefore a process of relational emergence, not a one-off event:

  • Physical potentials emerge as stars, planets, and galaxies.

  • Biological potentials emerge as life and ecosystems.

  • Cognitive potentials emerge as perception, reasoning, and memory.

  • Symbolic potentials emerge as abstract domains, simulations, and digital environments.

At each stage, new relational structures appear. Actualisation is always contextual: it is the bringing-into-relation of potential within a domain that supports coherent phenomena.


4. Nested and extended worlds

Dependence also explains the nested character of worlds. When one world emerges from another, it inherits the conditions of the lower strata while introducing novel relational structures:

  • A neural network depends on biochemistry but produces new cognitive phenomena.

  • A city depends on geography and social organisation but generates symbolic sub-worlds of law, economy, and culture.

  • A virtual environment depends on hardware and software but supports emergent experiences for its inhabitants.

Nested worlds show how actuality can expand without violating the integrity of the original domain. Each world, while dependent, is fully actualised in its own right.


5. Worlds as evolutionary nodes

Dependence and actualisation together reveal a key insight: worlds evolve. Each new domain opens possibilities that were not present in previous strata:

  • Life allowed the emergence of mind.

  • Mind allowed the emergence of symbolic culture.

  • Symbolic culture allows the creation of artificial and digital worlds.

Worlds are therefore nodes in the evolution of possibility, each generating conditions for subsequent worlds to appear.

This perspective reframes creation: whether biological, cognitive, symbolic, or technological, to create a world is to actualise relational potential in a coherent domain, producing phenomena that can participate in ongoing processes of meaning and emergence.


6. A bridge to symbolic and artificial worlds

Understanding dependence and actualisation sets the stage for our next focus: symbolic and artificial domains. Digital simulations, artistic environments, and technological creations can now be seen as legitimate worlds: dependent on conditions, nested within larger domains, but fully actualised in relational terms.

From this perspective, the simulation hypothesis is no longer an exotic philosophical curiosity. It is a special case of the general process by which worlds generate other worlds.


In the next post, we will explore nested worlds and symbolic domains in depth, examining how human culture, mathematics, language, and digital environments constitute new relational domains within which phenomena, relations, and meaning unfold.

Worlds Becoming Worlds: The Relational Ontology of Emergent Domains: 1 — The Anatomy of a World

In our previous series on the simulation hypothesis, we explored a surprising inversion: even a universe generated by a civilisation’s computation would not be an illusion, but another actualised world. What initially seemed like a threat to reality revealed itself as a doorway into the ongoing evolution of worlds.

This insight raises a more fundamental question: what does it mean for a domain to be a world? What are the conditions that allow a domain of phenomena to emerge, persist, and support the unfolding of meaning?

In this post, we begin to map the anatomy of a world — the relational structures, dependencies, and modes of actualisation that make it possible for a field of phenomena to exist.


1. Worlds as relational domains

A world, in relational terms, is not merely a collection of objects or events. It is a structured domain of phenomena in which relations can unfold and be construed.

Three features are essential:

  1. Relational coherence
    A world exhibits consistency in the relations between its phenomena. Physical laws, causal patterns, or symbolic rules ensure that entities interact in ways that are intelligible from within the domain.

  2. Phenomenal accessibility
    Phenomena must be observable or perceivable in some sense by entities capable of construal. Without the capacity for phenomena to appear within a relational field, no world is formed.

  3. Potential for meaning
    Worlds are not merely “happenings.” They are arenas where entities can participate in processes of construal, interpretation, and interaction. The emergence of meaning is the signature of an actualised domain.


2. Actualisation vs. potentiality

Worlds do not appear ex nihilo. They arise from conditions of potentiality, which themselves may vary across different strata:

  • Physical potentiality – the laws, energy, and matter that allow processes to unfold.

  • Biological potentiality – the structures enabling life and adaptive processes.

  • Cognitive or symbolic potentiality – the capacity for agents to perceive, construe, and generate meaning.

Actualisation occurs when potential relations become phenomena within a coherent domain. In other words, a world exists when potential is brought into relational view.

Dependence on conditions does not diminish reality. Stars depend on nuclear reactions, cells depend on chemistry, minds depend on neural processes. Similarly, worlds depend on conditions, but this dependence is not a flaw — it is the grammar of actuality itself.


3. Nested worlds and sub-worlds

Worlds are rarely isolated. Domains can contain sub-worlds, creating layers of relational actuality:

  • A forest is a world in which plants, animals, and climate interact.

  • Within it, a termite colony or a beehive forms a sub-world with its own coherence.

  • Within human society, symbolic systems — language, law, art — generate symbolic sub-worlds.

Each sub-world has its own relational structures and potentials. Yet it remains anchored in the broader domain from which it emerges.

This nested structure is crucial for understanding the evolution of possibility: worlds are not monolithic; they proliferate, giving rise to other domains in which phenomena can unfold.


4. Worlds as creative acts

Recognising worlds as relational domains reframes creation itself. To bring a world into being is to instantiate a coherent field of actualised phenomena, not merely to manipulate matter or symbols.

  • A civilisation that simulates a universe is creating a domain of possibility actualised as a world.

  • Artists, engineers, and scientists continually generate smaller-scale worlds through symbolic, material, and technological means.

  • Each world, large or small, participates in the ongoing evolution of relational domains.

Creation is not about copying or representing reality. It is about initiating relational structures that allow new phenomena and meanings to emerge.


5. The horizon of world-generation

This perspective opens an expansive horizon:

  • Worlds do not merely exist; they emerge, persist, and propagate new domains.

  • The universe itself can be seen as an evolving field of world-generation, in which each level of complexity creates the conditions for further worlds to arise.

  • Simulation, symbolic systems, and technological environments are early examples of how intelligences participate in this evolutionary process.

The question is no longer whether a universe is “real” or “simulated.” The question is: how do worlds, across all scales, give rise to other worlds?


Looking ahead

In the next post, we will explore dependence and actuality more formally, developing a taxonomy of conditions across strata: physical, biological, cognitive, and symbolic. This will clarify how worlds emerge from potential, how they persist, and how they can support nested domains of meaning.

The evolution of worlds is not a metaphor. It is the ongoing relational process through which actuality itself unfolds.

Reality, Simulation, and the Evolution of Worlds: 5 — The Evolution of Worlds

We began this series with a dramatic question: What if our universe is a simulation?

The hypothesis, most prominently associated with Nick Bostrom, proposes that the world we experience might not be the fundamental layer of reality but rather a computational construct generated by a more advanced civilisation.

Along the way we examined why this idea feels persuasive, identified the conceptual category error that underlies it, and explored the surprising consequence that follows if we take the hypothesis seriously: a successful simulation would not produce an illusion. It would produce another world.

This final step invites a shift in perspective.

Instead of asking whether our universe might be simulated, we can ask a deeper and more generative question:

How do worlds give rise to other worlds?


Worlds within worlds

The history of the universe already contains many examples of new domains emerging from older ones.

Physical processes give rise to chemical structures.
Chemical systems give rise to biological organisms.
Biological evolution eventually gives rise to minds capable of reflection, communication, and the construal of meaning.

At each stage, new kinds of phenomena appear.

Life is not simply a rearrangement of chemistry.
Mind is not merely a rearrangement of life.

Each stage opens a new field of relations in which novel forms of activity become possible.

Worlds, in other words, have a history.


The emergence of symbolic worlds

One of the most striking developments in this history is the emergence of symbolic systems.

Human language makes it possible to construct domains that exist not as physical environments but as structured fields of meaning. Mathematics, law, literature, science, and philosophy all depend on symbolic practices that generate new landscapes of possibility.

These symbolic domains are not illusions. They are real in the sense that they organise action, thought, and interaction within human societies.

Civilisations inhabit not only physical environments but also worlds of meaning.


Artificial environments

Technology extends this process even further.

Digital systems now allow us to construct complex artificial environments: simulated ecosystems, virtual landscapes, and interactive worlds inhabited by millions of participants.

These environments remain limited and fragile compared with the universe itself. Yet they demonstrate something important. Intelligent systems can create new domains in which events occur, relations unfold, and experiences take place.

They are early examples — however modest — of worlds generated within worlds.


The larger horizon

Seen from this perspective, the simulation hypothesis begins to look like a distorted glimpse of a larger pattern.

Instead of undermining the reality of our universe, it hints at the possibility that sufficiently advanced intelligences might participate in the creation of new domains of phenomena.

A civilisation capable of generating a coherent universe would not merely be building a machine. It would be initiating a new field in which structures could emerge, histories could unfold, and meaning could eventually arise.

What we had imagined as a threat to reality becomes a possibility within the ongoing evolution of worlds.


The unfolding of possibility

The universe, as far as we can tell, has been generating new levels of organisation for billions of years.

Matter gave rise to life.
Life gave rise to mind.
Mind gave rise to symbolic cultures capable of reflecting on their own existence.

Each transition opened a new horizon of possibility.

Perhaps the most remarkable feature of this process is that it does not appear to have reached a final stage. New forms of organisation continue to emerge, often in ways that would have been impossible to foresee from earlier perspectives.

If intelligences eventually learn to generate entire domains of phenomena — entire worlds — then the simulation hypothesis will turn out to have been asking the wrong question all along.

The question is not whether our world is “really real”.

The question is how reality continues to unfold new possibilities for worlds to come into being.


A final thought

From the perspective developed throughout this series, the contrast between simulation and reality begins to dissolve.

A successful simulation would not replace reality.

It would simply be one more way in which a world enters the unfolding of possibility.

And once that world exists — once phenomena arise within it, relations unfold within it, and meaning can be construed within it — the distinction between simulation and reality quietly disappears.

What remains is something both simpler and more profound:

a world, becoming possible.

Reality, Simulation, and the Evolution of Worlds: 4 — If the Universe Were Simulated

So far in this series we have examined the structure of the simulation hypothesis, explored why it feels so persuasive, and identified the conceptual category error that lies at its core. The idea — most famously articulated by Nick Bostrom — invites us to imagine that the universe we inhabit might be an elaborate simulation produced by a more advanced civilisation.

From the perspective developed so far, however, the most interesting move is not to reject the hypothesis outright.

Instead, it is to take it seriously.

What would follow if the hypothesis were actually true?


Taking the hypothesis at face value

Suppose that somewhere in a deeper cosmos there exists a civilisation with extraordinary technological capabilities. Suppose they construct a computational system capable of generating a vast, coherent environment — one with its own physical dynamics, structures, and histories.

Within that environment, stars form, galaxies evolve, planets emerge, and life eventually arises. Among the living beings that develop within this universe are creatures capable of reflection, inquiry, and the construal of meaning.

In other words, suppose that something very much like our universe unfolds within this simulated domain.

What, exactly, would such a civilisation have created?


Not an illusion, but a world

The natural temptation is to say that they would have created an illusion.

Yet this description does not survive careful examination.

If the simulated universe possessed internally coherent dynamics — if events occurred within it according to consistent structures and relations — then the phenomena within that universe would be entirely real for the beings who inhabit it.

Stars would burn.
Planets would orbit.
Organisms would evolve.
Histories would unfold.

The inhabitants of such a universe would participate in a genuine field of phenomena, interacting with one another and with their environment.

What the creators of the simulation would have produced is therefore not an illusion but a world.


Dependence and actuality

This conclusion may initially feel counterintuitive, but it becomes clearer once we separate two ideas that are often conflated: dependence and actuality.

Many things that are unquestionably real depend on conditions beyond themselves.

Stars depend on nuclear processes.
Cells depend on biochemical processes.
Consciousness depends on neural processes.

In each case, a phenomenon arises within a network of conditions that make its existence possible.

Yet this dependence does not make the phenomenon unreal.

The fact that a living organism depends on cellular processes does not turn the organism into an illusion. It simply situates the organism within a broader field of relations.

The same logic applies here. If a simulated universe depends on the computational processes of another civilisation, that dependence merely identifies the conditions under which the universe comes into being.

It does not negate the reality of the phenomena that occur within it.


The unexpected inversion

Seen from this perspective, the simulation hypothesis undergoes a remarkable inversion.

The hypothesis originally appears to challenge the reality of our universe. If our world were simulated, the reasoning goes, then perhaps everything we experience would be somehow less real.

But once the distinction between dependence and actuality is clarified, the argument turns back on itself.

A successful simulation would not produce a counterfeit reality.

It would produce another domain in which phenomena genuinely occur.

In other words, it would produce another world.


The creation of worlds

At this point the hypothesis begins to look very different from the way it is usually presented.

Instead of threatening the reality of our universe, it becomes a speculation about the conditions under which one world might bring another world into being.

A civilisation capable of simulating an entire universe would not merely be running a program. It would be participating in the generation of a new domain of phenomena — a new arena in which events can unfold and meaning can emerge.

What appeared at first as a challenge to reality therefore becomes something far more intriguing: a possibility within the evolution of worlds.


A shift in perspective

Once the argument reaches this point, the original drama of the simulation hypothesis begins to fade.

The question “Is our universe real, or is it a simulation?” turns out to rest on a misleading contrast. A simulated universe that genuinely instantiates phenomena is already a world.

Simulation does not oppose reality. It can become one of the ways in which reality unfolds.

In the final post of this series, we will step back from the simulation hypothesis itself and consider the broader picture that now begins to emerge.

Rather than asking whether our universe might be simulated, we can ask a more interesting question: how might worlds give rise to other worlds?

Seen from this perspective, the simulation hypothesis becomes not a threat to reality but a faint glimpse of something larger — the ongoing evolution of possibility itself.

Reality, Simulation, and the Evolution of Worlds: 3 — The Category Error at the Heart of the Simulation Hypothesis

In the previous posts, we examined the structure of the simulation hypothesis and the cultural forces that make it feel persuasive. The idea, most prominently associated with Nick Bostrom, suggests that the universe we experience may not be the fundamental layer of reality but rather a simulation produced by some deeper computational system.

So far we have seen that the hypothesis relies heavily on contemporary technological metaphors and echoes much older sceptical arguments, such as those developed by René Descartes. Yet beneath these historical and cultural influences lies a deeper conceptual difficulty.

The simulation hypothesis rests on a subtle but profound category error about how reality appears at all.


The hidden assumption

The hypothesis begins from an apparently reasonable intuition: what we experience might not be the ultimate structure of reality.

At first glance this seems entirely plausible. After all, science has repeatedly revealed that appearances can be explained by processes that lie beyond immediate perception. The motion of the planets is explained by gravitational dynamics, the solidity of matter by atomic structure, and the colours we see by interactions between light and the visual system.

In each case, phenomena are explained by referring to underlying processes.

The simulation hypothesis extends this explanatory pattern one step further. It proposes that the entire universe we experience might itself be generated by deeper processes — computational events occurring in some more fundamental reality.

But here something important changes.

In ordinary scientific explanations, the underlying processes remain phenomena within the same world. Atoms, gravitational fields, and neural activity all appear within the domain of investigation that science explores.

The simulation hypothesis, by contrast, imagines a level of reality that lies entirely outside the domain of phenomena available within our universe.

And this is where the category error begins.


Phenomena and the appearance of reality

From a relational perspective, reality does not stand behind phenomena as a hidden substrate waiting to be discovered.

Reality appears as phenomena within relations of construal.

What exists for a system is what can be construed within the relational field of its world. Phenomena are not merely images projected by deeper processes; they are the very way in which reality becomes accessible at all.

To speak of something as real is therefore to speak of its participation in a field of relations in which it can appear, interact, and be construed.

This is what makes a world possible.


The impossible “outside”

The simulation hypothesis attempts to describe a level of reality that lies completely outside this relational field.

The supposed base reality — the hardware on which our universe is imagined to run — would never appear as a phenomenon within the world whose existence it supposedly explains. No relation within the simulated universe could bring that hardware into view.

It would therefore be a reality that cannot appear within any relation available to the inhabitants of the system.

But a reality that cannot appear in any relation ceases to function as reality at all. It becomes something like a placeholder — a word standing in for something that cannot, even in principle, enter the domain in which the concept of reality has meaning.

In effect, the hypothesis asks us to imagine a reality that exists beyond all possible appearances.


The grammar of explanation

The temptation to posit such a reality arises from a familiar pattern in the grammar of explanation.

We are accustomed to explaining appearances by referring to underlying processes. The mind therefore extends this pattern one step further and imagines that the entire domain of appearances might itself be explained by something deeper.

But this extrapolation quietly crosses a conceptual boundary.

Explanations always occur within a world of phenomena. The processes invoked in explanations remain part of the same domain in which the phenomena being explained appear.

When the simulation hypothesis attempts to step outside that domain entirely, it tries to apply the grammar of explanation in a place where it can no longer function.

The result is an illusion of depth — a sense that we have uncovered a deeper layer of reality, when in fact we have merely extended a familiar explanatory pattern beyond the limits where it makes sense.


The colourless paint

Philosophical confusions of this kind often arise from the way language allows us to form grammatically well-structured questions that nevertheless lack coherent answers.

The simulation hypothesis invites a question that has this structure:

What is the reality behind all appearances?

The question feels meaningful because it resembles many legitimate scientific questions. Yet once we examine it carefully, it begins to resemble something like this:

What colour is the paint beneath all colours?

The grammar of the question is perfectly ordinary. But the moment we try to answer it, the question dissolves.

The simulation hypothesis operates in a similar way. It invites us to imagine a level of reality that exists beyond all possible appearances, but once we try to specify what such a reality could be, the concept begins to slip away.


A world is enough

Once this category error is recognised, the dramatic force of the simulation hypothesis begins to weaken.

The world we inhabit is a field of phenomena in which relations unfold, structures emerge, and meanings are construed. It is within this relational field that reality becomes accessible at all.

Whether that world depends on conditions beyond itself is a separate question — one that arises everywhere in science. But such dependence does not transform the world into an illusion.

A world does not cease to be real because it has conditions.

In the next post, we will push the argument one step further by exploring a curious inversion of the simulation hypothesis itself. If a civilisation were truly capable of simulating a universe, what they would create would not be a counterfeit reality.

They would create another world.