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Part I · Foundations

# The Two Problems

One of them is probably not solvable. The other is a mathematics problem that nobody has finished, and this book is about that one.

> Assumes
> Nothing. This chapter sets up the problem and states what a formal theory would have to deliver.
> Delivers
> Definition 1.1 (qualia formalism); the three structural problems that Chapters 3–10 must solve.

1.1 The problem that is probably not solvable

There is something it is like to see red. There is nothing it is like, so far as anyone can tell, to be a stone. Between those two facts sits the whole difficulty: physical description proceeds entirely in terms of structure and dynamics — what a thing is made of, how it is arranged, what it does next — and no amount of structure and dynamics appears to entail that there is something it is like to be the arrangement.

This is Chalmers' hard problem, and it has a specific logical shape worth isolating. It is not the problem of explaining discrimination, or reportability, or attention, or the difference between waking and dreaming. Those are hard in the ordinary way that unsolved scientific problems are hard, and they will yield to ordinary work. The hard problem is the residue after all of those are solved: the question of why the functioning is accompanied by experience at all.

I do not think this book solves it, and Chapter 12 says so at length. What a panpsychist ontology does is relocate it. If experience is not produced by particular arrangements of matter but is instead the intrinsic character of matter, then the question "why does this arrangement produce experience?" becomes "why does anything have an intrinsic character at all, and why is it phenomenal?" That is not an answer. It is a different and, I will argue, more tractable question, because it no longer requires an emergence relation that nobody can specify.

1.2 The problem that is a mathematics problem

Set the hard problem aside and a large, precise, unsolved problem remains. Experiences have structure. Some are unified and some are fragmented. Some contain a visual field, some do not. Some are excruciating and some are blissful, and the difference between those is not a difference of degree along one axis but something with a shape. Colours stand in similarity relations to one another that form a specific three-dimensional solid, not an arbitrary set. Time in experience has a thickness — a specious present of roughly a tenth of a second, not an instant.

All of this is structure, and structure is the natural home of mathematics. The bet that it can be captured exactly is QRI's, and it deserves a name and a precise statement.

> Definition 1.1 · Qualia formalism
>
> Posited
>
> For any globally bound moment of consciousness, there exists a mathematical object whose structure is isomorphic to the structure of that moment. Phenomenal facts are then facts about that object, and phenomenal similarity, difference, intensity and valence are its invariants.

Note what Definition 1.1 does and does not assert. It does not say we can find the object, or that it is simple, or that knowing it would tell you what red looks like. It says the object exists — that experience is not structurally amorphous. The denial of Definition 1.1 is the claim that two moments of experience could differ phenomenally while agreeing on every mathematical invariant, which is a strange thing to believe and, more to the point, is a research-stopper.

> Integrated Information Theory produces a number, $\varphi$, and a shape in cause–effect space. The number is not a formalism in the sense of Definition 1.1; the shape is a serious attempt at one.

Most theories of consciousness fail Definition 1.1 not because they are false but because they are not the right kind of thing. Global workspace theory describes an architecture, not an object. Higher-order theories describe a relation between representations. Predictive processing describes a dynamics. None of these supplies a mathematical object whose invariants are the phenomenal invariants — and so none of them can say, even in principle, why one state feels better than another.

1.3 Valence realism

Among the invariants, one is special. Experiences are not merely different from one another; some of them are good and some are bad, and this is a fact about the experience rather than about anyone's opinion of it. Call this valence realism: that pleasantness and unpleasantness are objective structural properties of a moment of experience, in the same sense that its dimensionality is.

Valence realism plus qualia formalism is a strong combination, because together they entail that there is a function from the mathematical object to the reals whose value is how good the experience is. Finding that function is the central technical goal of this book, and it occupies Chapters 6 through 9. QRI's proposal — the Symmetry Theory of Valence — is that the function measures symmetry. Chapter 6 makes "symmetry" precise as the atomicity of a spectral measure; Chapter 8 shows why that alone is insufficient and supplies the missing ingredient.

1.4 What a formal theory owes you

A theory of consciousness that merely accommodates the phenomena is worthless, because the phenomena are wildly under-constraining and any sufficiently vague story accommodates them. A theory earns its keep by forbidding things. This book therefore commits to four obligations, and the reader is entitled to hold it to them:

1. Specify the object. Name the mathematical structure, in an existing branch of physics, rather than gesturing at one. Chapters 3–5.
2. Individuate subjects non-arbitrarily. Say what makes your experience yours and not mine, in a way that does not depend on how an observer chooses to carve the world. Chapter 4.
3. Compute valence. Produce a number, from the object, that tracks how good the experience is — and say what would count as it failing. Chapters 6–9.
4. Forbid something. Make predictions that could come out the other way. Chapter 11 lists eight.

1.5 Three problems that must be solved on the way

Panpsychism is often dismissed on the grounds that it trades one mystery for three. That is a fair charge, and the three are worth naming now because the architecture of this book is organised around them.

| Problem | The difficulty | Resolved in |
| --- | --- | --- |
| Combination | If particles have micro-experiences, how do they compose into one unified macro-experience? Nobody has ever given a mechanism. | Chapter 3 |
| Boundary | What makes a subject a subject? Any answer that depends on an observer's choice of region is no answer. | Chapter 4 |
| Valence | Why does any configuration feel good? Structure alone seems to have no place for goodness. | Chapters 6–9 |

The reason to be interested in the specific proposal of this book, rather than panpsychism in general, is that the answer to the first is unusually clean. It is not a mechanism for combination. It is a proof that the question is malformed — that the parts it presupposes do not exist in quantum field theory. That result is Theorem 3.1, and everything after it is an attempt to build on ground that argument clears.

1.6 Why a field, and not a computation

One preliminary commitment should be made explicit now, because it shapes everything downstream. This is a physical theory rather than a computational one: it locates consciousness in the state of a field, not in the abstract structure of an information-processing system.

The reason is that computation is not an intrinsic property. Whether a physical system implements a given computation depends on an interpretation mapping states to symbols, and such mappings are cheap — a point pressed hard by Putnam and Searle, and never satisfactorily answered. If consciousness were computational, then whether a system were conscious would depend on how someone chose to describe it, which contradicts the objectivity that valence realism requires. Fields do not have this problem: the state of the electromagnetic field in a region is a fact, not an interpretation.

This commitment has a price, and it is paid in Chapter 11, prediction 8: if phenomenal binding can be produced across a purely digital channel between two brains that share no field region, this theory is refuted and the computationalists are right. I would rather have that bet on the table than not.

> ### What Chapter 1 established
>
> - The hard problem is relocated by panpsychism, not solved. This book addresses the structural residue.
> - Definition 1.1 (qualia formalism) is an existence claim about a mathematical object, and its denial is a research-stopper.
> - Valence realism plus formalism entails a computable goodness function — the central technical target.
> - Three problems must be solved: combination, boundary, valence. They organise Parts II and IV.
> - The theory is field-theoretic rather than computational, because computation is observer-relative and valence is not.

> ### Exercises
>
> 1. Distinguish the hard problem from the meta-problem — the problem of explaining why we think there is a hard problem. Which does a panpsychist ontology address, and which does it leave untouched? [1]
> 2. Definition 1.1 is an existence claim, and bare existence claims are hard to falsify. Formulate a version that a specific experiment could contradict. (Hint: consider two states agreeing on all invariants of a candidate object but differing in report.) [2]
> 3. Integrated Information Theory assigns a scalar $\varphi$. Explain why a scalar cannot satisfy Definition 1.1, and what would have to be added. [2]
> 4. Construct Putnam's argument that any sufficiently large system implements any finite-state automaton. Then state precisely which premise a field-theoretic account denies. [2]
> 5. Open. Valence realism claims goodness is an objective structural property. Give an argument, not relying on any particular theory, that would establish or refute this. No satisfactory such argument is known. [3]

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