Paradigm and Possibility: Reconstructing Kuhn through Relational Ontology — IV Normal Science as the Maintenance of Meaning

In the popular imagination, science advances through revolutions.

Great breakthroughs.

Shattering discoveries.

Radical transformations of human understanding.

But Thomas Kuhn understood something deeply unfashionable:

Most science is not revolutionary at all.

Most scientists do not spend their lives overthrowing paradigms. They spend their lives working within them — refining measurements, solving technical problems, extending established models, calibrating instruments, reproducing results, stabilising methods, and elaborating existing frameworks.

Kuhn called this normal science.

And for many readers, it sounded disappointingly conservative.

Science appeared reduced to bureaucratic puzzle-solving carried out by highly trained specialists reluctant to question foundational assumptions. Kuhn’s critics often treated this aspect of his work almost dismissively, as though “normal science” represented a regrettable stagnation periodically interrupted by genuine intellectual creativity.

But from the perspective of relational ontology, normal science suddenly becomes far more profound.

It is not merely the routine application of knowledge.

It is the continual maintenance of meaning.

This requires a fundamental shift in how we understand scientific activity itself.

The representational image of science assumes that once a theory correctly describes reality, scientific work largely consists of accumulating further facts about an already constituted world. Meaning functions secondarily, as a transparent vehicle for transmitting information about independently existing objects.

But relational ontology reverses the picture entirely.

Scientific worlds do not remain stable automatically.

Phenomena are not self-sustaining givens floating independently of the semiotic organisations through which they actualise. A scientific paradigm must continually reproduce the construal conditions that allow its phenomenological world to remain coherent, intelligible, and operationally viable.

This is precisely what normal science accomplishes.

Every experiment reproduced,

every textbook written,

every laboratory protocol standardised,

every graph interpreted,

every student trained,

every technical distinction maintained

participates in the ongoing reproduction of a specialised organisation of meaning.

Science therefore does not simply discover worlds.

It continually sustains them.

This is where the relational ontology intersects powerfully with the work of M. A. K. Halliday and systemic functional linguistics.

From a Hallidayan perspective, language is not primarily a naming system for representing pre-existing reality. Language is a social semiotic: a meaning potential through which human worlds become organised and actionable. Scientific discourse therefore cannot be reduced to neutral description layered upon objective facts.

Scientific discourse actively participates in the organisation of scientific phenomena.

A scientific paradigm, viewed relationally, functions as a historically stabilised semiotic potential distributed across:

• specialised discourses,
• institutional practices,
• methodological routines,
• educational systems,
• technological infrastructures,
• and communities of trained construal.

Normal science is the mechanism through which this potential is continuously actualised and reproduced.

This makes scientific training especially significant.

A student entering a scientific discipline is not merely learning information about the world. They are being inducted into a highly specialised organisation of meaning. They learn:

• what counts as a phenomenon;
• what distinctions matter;
• what qualifies as evidence;
• what constitutes explanation;
• what can be ignored;
• and what may legitimately emerge as a meaningful scientific question.

In this sense, scientific education is not simply informational transmission.

It is construal formation.

The student gradually acquires the capacity to participate in a particular phenomenological world.

Kuhn recognised this implicitly when he emphasised the role of exemplars, laboratory training, and disciplinary practice in scientific formation. Scientists do not primarily operate through explicit philosophical rules. They acquire tacit capacities for navigating an established organisation of meaning.

But Kuhn lacked the semiotic framework necessary to fully explain what was being reproduced through these practices.

Relational ontology clarifies the issue:

normal science maintains the coherence of a distributed meaning system through recurrent acts of construal actualisation.

And this also explains something that puzzled many critics of Kuhn:

why scientists often appear remarkably resistant to foundational critique.

From the outside, this resistance can look dogmatic. Why not constantly question the paradigm? Why not reopen foundational assumptions continuously?

But from within the relational perspective, endless destabilisation would make coherent scientific practice impossible.

A scientific world must maintain sufficient phenomenological stability to support:

• reproducibility,
• cumulative refinement,
• technical coordination,
• institutional continuity,
• and material intervention.

Normal science therefore performs an indispensable stabilising function.

It preserves the coherence necessary for a scientific world to remain operationally viable.

This does not mean paradigms are eternal.

Nor does it imply that science is merely conservative.

Rather, stability and transformation exist in dynamic tension.

Without the stabilising work of normal science, no coherent scientific world could persist long enough to develop sophisticated forms of inquiry. Yet the very processes that sustain meaning also gradually expose tensions, anomalies, and incoherences that may eventually destabilise the system itself.

Normal science therefore contains the seeds of revolution internally.

The maintenance of meaning simultaneously produces the conditions under which meaning may fracture.

This is one of Kuhn’s deepest insights once reconstrued relationally.

Scientific revolutions do not descend from outside science like external shocks. They emerge from the internal dynamics of meaning-maintenance itself. Every refinement sharpens distinctions. Every clarification reveals new tensions. Every successful construal stabilises some relations while potentially destabilising others.

Meaning evolves through its own maintenance.

And here an irony emerges.

Modern culture often celebrates science as the domain of pure objectivity — a realm supposedly freed from the ambiguities and instabilities of meaning. Yet Kuhn’s work, viewed relationally, reveals almost the opposite.

Science is among the most sophisticated meaning-maintenance systems humanity has ever developed.

Its extraordinary power arises not from escaping meaning, but from organising meaning with remarkable precision, reproducibility, and institutional durability.

Scientific objectivity therefore cannot mean access to unconstrued reality.

Rather, objectivity becomes the stabilised reproducibility of phenomenological actualisations across distributed communities of practice.

A phenomenon becomes “objective” not because it exists independently of construal, but because the construal organisation sustaining it can be recurrently actualised across observers, instruments, institutions, and material interventions.

This does not weaken science.

It explains its strength.

Scientific worlds endure because they are socially, materially, technologically, and semiotically maintained through immense networks of coordinated practice.

Normal science is the labour of that maintenance.

And once this becomes visible, Kuhn’s picture changes profoundly.

Normal science is no longer the dull interval between revolutions.

It is the ongoing work through which worlds remain phenomenologically coherent long enough for revolutions to matter at all.