Tuesday, 29 September 2026

 Both Lee Smolin and Charles Sanders Peirce share a rare, radical premise in theoretical physics and philosophy: physical laws are not eternal mathematical truths, but historical outcomes of an evolutionary process.

However, they construct this evolutionary mechanism through fundamentally different frameworks—Smolin relies on Darwinian population dynamics, whereas Peirce relies on Lamarckian mental habituation.

1. Mechanisms of Law Evolution

Smolin: Population Dynamics & Mutation (Darwinian)

Smolin’s Cosmological Natural Selection (CNS) applies biological evolution to the multiverse:

  • Replication via Black Holes: Every time a star collapses into a black hole, quantum gravitational effects prevent a true singularity, causing a "bounce" that expands into a new baby universe on the other side.

  • Mutation: The fundamental constants (e.g., electron mass, fine-structure constant) undergo slight random fluctuations during the quantum bounce.

  • Differential Fitness: Universes whose physical constants produce more black holes yield more "offspring." Over generations, the ensemble of universes becomes dominated by parameters optimized for black-hole production (which, coincidentally, also favors long-lived stars and carbon-based chemistry).

Peirce: Individual Memory & Habit-Taking (Lamarckian/Psychological)

Peirce’s Habit-Taking views the universe as a single, continuous organism rather than a population of distinct universes:

  • Growth of Regularity: Reality begins in absolute chance (tychism) and primordial feeling. Whenever a spontaneous event occurs, there is an inherent metaphysical tendency for it to recur.

  • Hardening into Law: As tendencies repeat, the "habit" becomes stronger and more rigid over cosmic timescales, eventually solidifying into what we observe as rigid physical laws.

  • No Population Required: Physical law evolves within our single universe as a direct strengthening of internal routine, much like an individual learning a skill or developing a muscle memory.

2. Core Comparison

FeatureC.S. Peirce (Habit-Taking)Lee Smolin (Cosmological Natural Selection)
Evolutionary ParadigmLamarckian / Ontogenetic: Single-entity habit formation and reinforcementDarwinian / Phylogenetic: Multi-generational population selection and mutation
Locus of EvolutionWithin a single continuous universe (Synechism)Across an expanding ensemble/multiverse of child universes
Ontological PrimacyObjective Idealism (mind hardening into matter)Physicalism / Spacetime Realism (quantum geometry)
Driver of NoveltyAbsolute chance (Tychism)Quantum fluctuations at black hole bounce singularities
Selection CriterionInternal stabilization and repetitionMaximization of black hole creation (fecundity)

3. Where They Align and Diverge

Point of Deep Agreement: Anti-Platonism

Both thinkers reject the standard Platonist view in physics—the idea that timeless, immortal laws existed "before" the Big Bang in an abstract mathematical realm. Both argue that time is fundamental, and because time is real, laws must have a history and a origin story.

Point of Divergence: Objective Idealism vs. Quantum Realism

  • Peirce sees the evolutionary driver as psychological/semiotic: habit is a property of mind. For Peirce, physical laws are just mind that has lost its plasticity and become "hidebound."

  • Smolin explicitly rejects idealism. His mechanism requires no subjective element or mental property; it relies strictly on physical geometry, quantum field theory, and black hole thermodynamics.

 Modern Quantum Field Theory (QFT) treats physical laws not as eternal, static axioms carved into the fabric of reality, nor as biological-style habits learned by a primordial mind. Instead, QFT views low-energy physical laws as effective phenomena that emerge, freeze out, and transform depending on the energy scale and temperature of the system.

This framework explicitly incorporates a form of cosmic evolution, but one governed strictly by symmetry breaking, renormalization, and quantum phase transitions rather than intention or organic memory.

1. Laws as Effective Field Theories (EFTs)

In contemporary physics, the laws of nature are organized hierarchically through the paradigm of Effective Field Theory.

  • Scale Dependence: The rules that govern interactions depend on the energy scale at which you probe them. At ultra-high energies (near the Planck scale, $10^{19}\text{ GeV}$), the universe might be governed by a single, highly symmetric theory (e.g., string theory or a grand unified theory).

  • Decoupling and Emergence: As the universe expands and cools, high-energy heavy degrees of freedom "integrate out." What remains at lower energies are new, effective laws with distinct coupling constants, force carriers, and particle masses.

For instance, the weak nuclear force and electromagnetism were not always separate. Above $100\text{ GeV}$ (fractions of a second after the Big Bang), they were a single unified electroweak force. The "law" separating them did not exist until the universe cooled enough for the Higgs field to acquire a vacuum expectation value.

2. Cosmic Evolution via Phase Transitions

QFT provides a clear mechanism for how the apparent laws of physics evolved during the history of the early cosmos:

  1. Spontaneous Symmetry Breaking: As cosmic temperature drops, underlying symmetries of quantum fields become hidden. The universe passes through critical phase transitions—similar to liquid water freezing into ice.

  2. Freezing the Vacuum State: When symmetry breaks, the universe settles into a specific minimum-energy state (a vacuum state). The parameters of our local laws—such as particle masses and force strengths—are determined by the properties of this chosen vacuum state.

  3. Cosmological Evolution: As depicted in the early cosmic timeline, the universe transitioned from a unified hot plasma through the electroweak phase transition, followed by the QCD (quantum chromodynamics) phase transition where free quarks became permanently bound into protons and neutrons.

High Energy / High Temp (Early Universe)
│   - Maximal Symmetry (Unified Forces)
│   - Massless Particles
▼
[Spontaneous Symmetry Breaking / Phase Transitions]
▼
Low Energy / Low Temp (Present Cosmos)
│   - Broken Symmetries (Distinct Forces: Electromagnetism, Weak, Strong)
│   - Massive Particles (via Higgs mechanism)

3. Does QFT Leave Room for "Cosmic Evolution"?

Yes, but the nature of this evolution differs substantially depending on whether you consider our local universe or the broader multiverse landscape:

In Our Observable Universe (Effective Evolution)

  • Constants "Run": Coupling constants (like the fine-structure constant $\alpha$) are not strictly constant. Through the renormalization group, these values "run" (change value) as a function of interaction energy.

  • State Evolution, Not Law Evolution: In QFT, the meta-laws (the underlying quantum field equations and symmetry groups) remain invariant, but the effective laws (the actual forces and particle properties observed by light-weight creatures at $300\text{ K}$) are historical outcomes of cosmic cooling.

In the Multiverse / String Landscape (Historical Contingency)

  • The Cosmic Landscape: Modern extensions of QFT into String Theory suggest there are roughly $10^{500}$ valid vacuum states. Each vacuum represents a local "pocket universe" with fundamentally different effective physical laws, masses, and forces.

  • Cosmological Natural Selection: Physicists like Lee Smolin have proposed theories of cosmological evolution where black holes give birth to child universes with slightly mutated physical constants. While speculative, QFT and inflationary cosmology provide the mathematical machinery (vacuum tunneling and eternal inflation) that makes such evolutionary concepts field-theoretically plausible.

Summary Comparison

ConceptPeircean Objective IdealismModern Quantum Field Theory
Origin of LawsMind forming rigid habits over cosmic timeEffective field theories emerging via symmetry breaking
Driver of ChangeTychism (spontaneity) and habit-takingTemperature drops, field fluctuations, renormalization
Fundamental UnitContinuous feeling / spontaneityQuantum fields and spacetime symmetries
Cosmic EvolutionMind solidifying into deterministic matterVacuum states transitioning across energy scales

In short, QFT agrees with the intuition that the laws we observe today are historical, condensed products of a hotter, more chaotic early state. However, it replaces the concept of "mental habit" with the concrete mathematics of quantum field vacuum dynamics.

 Charles Sanders Peirce’s proposal that matter is not a distinct, non-mental substance, but rather "mind hidebound with habit" stems directly from his objective idealism, his evolutionary metaphysics, and his critique of Cartesian dualism and absolute materialism.

Peirce developed this view—most famously in his 1891 essay "The Architecture of Theories"—to solve the problem of how mind and matter can interact without relying on dualist "magic" or reducing consciousness to a mere illusion.

1. The Methodological Problem: Avoiding Unbridgeable Dualism

Peirce argued that Cartesian dualism creates an impossible metaphysical divide: if mind and matter are two entirely different substances, they cannot causally interact.

He identified two ways to resolve this:

  • Materialism: Supposes mind is a byproduct of matter. Peirce argued materialism fails because it cannot account for subjective feeling, intention, or spontaneity without treating them as meaningless accidents.

  • Objective Idealism: Supposes matter is a specialized form of mind. Peirce concluded that if one substance must be primary, mind is the logically superior choice because mind possesses the capacity for feeling and habit-formation, which can account for physical laws. Physical laws, by contrast, cannot account for feeling.

2. Synechism: The Law of Continuity

At the core of Peirce’s philosophy is synechism—the principle that everything in the universe is continuous rather than radically discrete or separated into absolute dichotomies.

Under synechism:

  • Mind and matter are not two distinct categories; they lie on a continuous spectrum.

  • Matter is simply mind that has become extremely rigid, regular, and predictable in its behavior.

  • What we call "physical laws" are not absolute, eternal decrees imposed from outside universe dynamics, but rather deeply ingrained habits that mind has acquired over billions of years.

3. Tychism: Spontaneity as the Primitive Core

Peirce introduced tychism—the doctrine that absolute chance and spontaneity are real, fundamental features of the universe:

  1. Primordial Mind: In its most primitive, unbounded state, "mind" consists of pure feeling, absolute spontaneity, and continuous chance.

  2. Habit-Taking: Mind possesses an inherent tendency to take habits—to repeat actions, form patterns, and grow increasingly structured over time.

  3. The Genesis of Matter: As spontaneous mental events repeat, the tendency to act in that same way strengthens. Over vast cosmic timescales, these habits become so rigid, immutable, and uniform that their underlying spontaneity becomes imperceptible.

At this point of extreme rigidity, mind manifests as matter obeying physical law.

4. Summary of the Metaphor

StateCharacterized ByMetaphysical Nature
Mind (Unconstrained)Spontaneity, feeling, plasticity, learningActive habit-taking process
Matter (Constrained)Regularity, inertia, predictability, deterministic lawMind "hidebound" by hardened habit

In Peirce’s view, physical laws are simply the cosmic memory of mind—habits grown so entrenched that they seem immutable to human observation.



Pretend that you are Richard Dawkins, Sean Carrol or similar and interrogate these ideas

The Metaphysical Scaffolding Problem: A Contemporary Physicalist Interrogation

Charles Sanders Peirce’s objective idealism is an undeniably brilliant piece of 19th-century speculative philosophy. It attempts to bypass Cartesian dualism by taking the ultimate substrate of reality to be “mind” and viewing the laws of physics as merely ingrained “habits.”

However, from the standpoint of modern naturalism, theoretical physics, and evolutionary biology, Peirce’s framework commits a fundamental inversion. It mistakes the products of long, complex evolutionary processes for the foundations of physical reality.

Here is how modern naturalism interrogates Peirce’s thesis.

1. The Category Error: Mind as Fundamental vs. Mind as Emergent

Peirce posits that “feeling” and “habit-taking” are primordial—the raw material out of which physical law crystallized.

From a modern biological and cognitive perspective, this is precisely backward:

  • Mind is complex, not simple: Consciousness, feeling, and subjective experience are not primitive substances. They are highly complex, emergent phenomena requiring specific, highly ordered physical architectures—namely, metabolic systems, neural networks, and information-processing structures shaped by natural selection over billions of years.

  • The Complexity Paradox: To declare that unorganized, primitive reality was "mind" removes the explanatory necessity for how mind arose in the first place. It smuggle the end-product of evolutionary complexity into the starting conditions of the Big Bang.

2. Physical Laws vs. "Habits": Symmetries, Invariants, and the Early Universe

Peirce envisioned physical laws as habits that the universe "learned" over time through a process of cosmic repetition (tychism).

While modern physics does explore how effective laws can change with energy scales (such as spontaneous symmetry breaking in quantum field theory or biological evolution), physical laws do not behave like "habits":

  • Fundamental Symmetries: The laws of conservation (momentum, charge, energy) derive directly from fundamental continuous symmetries of spacetime (Noether’s Theorem). They are mathematical invariants, not behavioral tendencies formed by trial and error.

  • Uniformity across space and time: Observations of the cosmic microwave background and early stellar spectra show that fine-structure constants and the properties of fundamental particles (electrons, quarks) were identical 13.8 billion years ago to what they are today. If physics were a "habit," we would expect to observe a messy, historical, geographically varied record of physics "learning" how to be physics in the early cosmos. Instead, we see absolute quantum mathematical precision from the earliest detectable epochs.

3. The Explanatory Deficit of Objective Idealism

Peirce claimed objective idealism was superior because materialism couldn't explain how "feeling" arises from brute matter. But swapping the difficulty does not solve it:

FrameworkCore AssumptionExplanatory Burden
PhysicalismFundamental particles, fields, and quantum statesHow complex arrangements of fields generate subjective experience (the hard problem).
Peircean IdealismPrimordial mind, feeling, and habit-takingHow abstract "pure feeling" acquires physical properties like mass, charge, spin, and spatial locality.

Calling a photon or an electron "mind that has become rigid" adds no predictive power to quantum electrodynamics. It is a re-labeling exercise. The mathematical equations of the Dirac equation describing an electron remain identical whether you call the electron "matter" or "a very stubborn mental habit."

4. Evolutionary Naturalism: Where Habit Actually Lives

Where Peirce gets something profoundly right is the central importance of habit-formation and evolution. His mistake was placing it in the wrong layer of reality:

  • Habit-taking is not a property of fundamental spacetime or quantum fields.

  • Habit-taking is a central property of adaptive complex systems—specifically biology, neuroscience, and culture.

Living organisms and brains genuinely do use habit-taking to constrain randomness into regularized, predictive behavior. But this happens within a universe governed by invariant physical laws, not as the underlying engine that creates the laws themselves.

Monday, 28 September 2026

"The point that I’m trying to make here is that, for one, suffering doesn’t make you better, and, for two, people behave relatively predictably given their circumstances. And the circumstances that matter most are usually power relations.

There are very, very few historical examples where an inequitable power dynamic ends up reifying altruistic tendencies in the more powerful. Almost always, the opposite happens.

The inequality of power—the dynamic, the juxtaposition between the powerful and the weak—usually leads, at least over a long enough period of time, to antisocial, malign, sadistic behavior, which is bad, in my opinion".

V

If by the “ivory tower problem” you mean the structural problem of education becoming socially, culturally, and epistemically detached from the people it is supposed to serve, then it can be addressed—but not by simply making universities more accessible. The deeper issue is who gets to produce knowledge, whose knowledge counts, and who has power to decide what education is for.

A useful way to frame a solution is:

1. Democratise knowledge production

Universities should move from a model where knowledge is primarily produced by experts about communities toward one where knowledge is also produced with and by communities.

That means:

  • participatory research with affected communities;
  • community-defined research questions;
  • compensating community researchers and knowledge holders;
  • treating lived experience as evidence without pretending that all forms of knowledge are interchangeable;
  • giving communities meaningful influence over research priorities.

For example, research into housing shouldn't merely study "low-income households" as an external population. Residents can help define the questions, collect evidence, interpret findings, and decide what recommendations matter.

2. Change what counts as legitimate knowledge

The epistemic problem is deeper than curriculum diversity. An institution can add texts by non-Western authors while retaining the assumption that the university is the ultimate authority on what constitutes knowledge.

A less hierarchical model would recognise multiple forms of knowledge—academic, professional, Indigenous, local, experiential, artistic, practical—while still asking each kind of claim to meet appropriate standards of justification.

This avoids two opposite mistakes:

“Only credentialed academics know things.”

and

“Everyone's opinion is equally reliable about everything.”

Neither is necessary.

3. Make universities accountable to the public

Public institutions should have mechanisms through which the people who fund and are affected by them can influence their priorities.

That could include:

  • community representation in governance;
  • publicly accessible research agendas;
  • participatory budgeting;
  • public-interest obligations attached to public funding;
  • accessible explanations of research findings;
  • partnerships with schools, unions, libraries, local organisations and civic institutions.

The university becomes less of a knowledge fortress and more of a public knowledge institution.

4. Change the curriculum

An education system becomes detached when students are taught knowledge without understanding where it came from, whom it serves, and how it relates to their lives.

A stronger curriculum would connect abstract theory to concrete social problems.

Instead of:

theory → examination → credential

you can have:

experience → question → theory → investigation → application → reflection

Students could work on genuine problems in their communities while learning the relevant disciplinary knowledge.

This doesn't mean abandoning rigorous theory. It means giving theory somewhere to go.

5. Remove barriers to entering the knowledge system

The people most affected by educational decisions often have the least access to the institutions making them.

That requires addressing:

  • tuition and living costs;
  • unequal preparation;
  • admissions practices;
  • disability barriers;
  • language barriers;
  • geographical concentration of institutions;
  • exclusionary professional networks;
  • unpaid internships and other mechanisms that favour wealthier students.

But representation also has to continue after admission. Simply getting someone from a marginalised background into an institution that remains structurally unchanged can place the burden of adaptation entirely on that person.

6. Change the incentives facing academics

There's a structural contradiction here.

Academics are often rewarded for:

publishing → citations → prestige → career advancement

rather than:

public usefulness → community benefit → institutional change

If society wants publicly engaged scholarship, it has to reward it.

Promotion and funding could give greater weight to things such as:

  • policy impact;
  • community partnerships;
  • accessible educational resources;
  • open research;
  • public scholarship;
  • contributions to local institutions;
  • research that communities themselves identify as valuable.

7. Build reciprocal relationships rather than “outreach”

There is an important distinction between outreach and reciprocity.

Outreach says:

“We have knowledge, and we will bring it to you.”

Reciprocity says:

“We have some knowledge, you have some knowledge, and we can learn from one another.”

That changes the relationship fundamentally.

A university medical department, for example, might work with a community organisation not merely to educate residents about health but to learn why existing healthcare systems are failing particular populations.

8. Decentralise education

The physical concentration of expertise in elite institutions contributes to the problem.

Libraries, further-education colleges, community centres, online platforms, museums, workplaces, local organisations and public institutions can all become sites of serious knowledge production.

Universities could provide infrastructure and expertise without insisting that all legitimate learning must pass through the university gate.

9. Teach epistemic literacy

There is an additional danger in trying to correct epistemic exclusion: replacing one unquestioned authority with another.

Students should learn to ask:

  • Who produced this knowledge?
  • What evidence supports it?
  • What assumptions does it make?
  • Whose perspective is missing?
  • Who benefits from this interpretation?
  • What would falsify the claim?
  • How does lived experience relate to empirical evidence?
  • What are the limits of this method?

That produces citizens capable of challenging both academic authority and popular misinformation.

10. Change the ultimate purpose of education

This may be the deepest part of the solution.

If education is principally treated as a mechanism for producing economically valuable workers, then an "out-of-touch" education system is almost inevitable. People become inputs into an economic system rather than participants in determining what kind of society they want.

A broader conception of education would have at least four purposes:

Individual: developing people's capabilities and intellectual autonomy.

Economic: developing useful skills and knowledge.

Democratic: enabling people to participate meaningfully in collective decisions.

Epistemic: enabling society to discover, preserve, criticise and improve knowledge.

The fourth and third purposes are particularly important to your formulation of the problem.


The central shift

I'd summarise the whole solution as a movement:

from

knowledge about people, produced by experts, delivered to passive recipients

toward

knowledge produced through reciprocal relationships among experts, communities and learners, with institutions accountable to the people whose lives they affect.

But there is an important qualification: “the people” aren't epistemically homogeneous either. A community can contain internal hierarchies—gender, class, ethnicity, age, disability, political power, etc. So democratizing knowledge cannot simply mean replacing academic elites with an imagined unified hoi polloi. It needs mechanisms for identifying disagreement and protecting less powerful members within communities too.

In that sense, I wouldn't try to abolish the ivory tower so much as turn it into a bridge: preserve the things universities can uniquely provide—specialised expertise, sustained inquiry, methodological rigour, archives, laboratories, intellectual independence—while breaking their monopoly over whose questions matter and whose knowledge enters the conversation.

  Both Lee Smolin and Charles Sanders Peirce share a rare, radical premise in theoretical physics and philosophy: physical laws are not eter...