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Qualia Structure: A 21-Pair Taxonomy

Bridge from the previous chapter

In the section L0–L4 Hierarchy we established when conscious experience arises: a system at level L2 and above possesses reflection (R1/3R \geq 1/3) and integration (Φ1\Phi \geq 1). Now we ask: what is this experience made of? What exact types of experience are possible in 7-dimensional space? The answer is given by the coherence matrix Γ\Gamma and its 21 off-diagonal elements.

On notation

Chapter roadmap

  1. Philosophical history of the problem — from Lewis to Jackson and Dennett
  2. Motivation — why exactly 21 types and where this number comes from
  3. Full table — all 21 coherences with phenomenological names
  4. Parametric structure — three dimensions of each quale (intensity, perspective, opacity)
  5. Closure theorem — proof that 21 types exhaust everything
  6. Fano structure — how 21 pairs are organised into 7 sectors
  7. Diagonal elements — 7 population modes as the "background" of experience
  8. Access conditions — at which RR and Φ\Phi qualia become conscious

Philosophical History: What Are Qualia?

The word qualia (Lat. qualia, pl. of quale — "of what kind", "of what sort") denotes the subjective qualities of experiences: what it is like to see red, to hear C major, to smell coffee. Behind this simple question lies one of the deepest problems in philosophy.

Lewis (1929): the first definition

The American philosopher Clarence Irving Lewis in "Mind and the World Order" (1929) first introduced the term "qualia" into systematic use. He noted: when we see a red rose, there is something that cannot be conveyed to someone blind from birth — the subjective quality of "redness". That quality is the quale. Lewis distinguished:

  • Quale — the ineffable subjective quality (what it is like to see red)
  • Property — an objective characteristic (wavelength 700 nm)

Jackson (1982): Mary's room

Frank Jackson in the famous thought experiment "Mary's Room" (1982) pushed the problem to its limit:

Mary is a brilliant neuroscientist who has spent her whole life in a black-and-white room. She knows everything about the physics of colour: wavelengths, the workings of retinal cones, neural correlates. One day Mary leaves the room and sees a red rose for the first time. Does she learn something new?

Jackson argued: yes. Mary learns what it is like to see red. Hence physical facts do not exhaust reality — there is something beyond them (qualia).

Dennett (1988): qualia as illusion

Daniel Dennett took the opposite position. In the article "Quining Qualia" (1988) he argued that qualia are a philosophical illusion: we think we experience something "ineffable" and "private", but in fact all information about experiences is encoded in functional states of the brain. No "remainder" is left after a complete physical description.

UHM position: qualia as coherence structure

The Unitary Holonomic Monism offers a third path, coinciding with neither Jackson's dualism nor Dennett's eliminativism:

  • Qualia are not an illusion — they have a precise mathematical structure (coherences γij\gamma_{ij})
  • Qualia are not a separate substance — they are the off-diagonal elements of the same matrix Γ\Gamma that describes the "physics" of the system
  • The distinction between "subjective" and "objective" is the distinction between the inner and outer perspectives of the same mathematical structure (dual-aspect monism, see Two-Aspect Monism)

Mary in the room knew all the diagonal properties (γii\gamma_{ii}) of red. But she did not know the coherences — how visual discrimination (AA) binds with interiority (EE), forming the quale of apperception (γAE\gamma_{AE}). On leaving the room, she did not acquire a new fact — she acquired a new coherence.


Motivation: Why 21 Types?

The coherence matrix Γ\Gamma is a 7×77 \times 7 Hermitian matrix on the space of seven dimensions {A,S,D,L,E,O,U}\{A, S, D, L, E, O, U\}. Let us recall what each dimension means:

SymbolNameMeaning
AAArticulationDiscrimination, differentiation
SSStructureStable forms, patterns
DDDynamicsProcesses, changes
LLLogosLogical coherence, rules
EEExperienceInteriority, experience
OOGroundSource, deep foundation
UUUnityIntegration, wholeness

The matrix Γ\Gamma contains two kinds of elements:

  • 7 diagonal elements γii\gamma_{ii} — dimension populations (how much "resource" is in each dimension)
  • 21 off-diagonal pairs (γij,γji)(\gamma_{ij}, \gamma_{ji}) for i<ji < j — coherences (how the dimensions are connected to each other)

Number of pairs:

(72)=762=21\binom{7}{2} = \frac{7 \cdot 6}{2} = 21

Each coherence γij\gamma_{ij} carries phenomenological content determined by the semantics of the dimension pair (i,j)(i, j).

An everyday analogy. Imagine an orchestra of 7 musicians. Each plays their own part (7 diagonal elements — the "volume" of each instrument). But music is born not from individual sounds, but from their interaction — from how the violin "converses" with the cello, how the flute echoes the bassoon. There are exactly (72)=21\binom{7}{2} = 21 such pairwise interactions. Each produces a unique "timbre" of combined sound — that is the type of quale.

The diagram shows only 10 of the 21 coherences — the rest connect each pair of dimensions in an analogous way. The complete table of all 21 types is given below.

Interpretation: 21-Pair Qualia Taxonomy (I.1)

Interpretation I.1 (Qualia taxonomy) [I]

Each coherence γij\gamma_{ij} (iji \neq j) of the matrix Γ\Gamma defines a type of quale — a qualitatively determinate mode of experiential content. The 21 pairs exhaust all possible types, since (72)=21\binom{7}{2} = 21 is the complete set of connections in a 7-dimensional system.

This is an interpretation (a mapping from the formal to the phenomenal), not a mathematical theorem. The mathematical content is trivial combinatorics; the phenomenological assignment is a semantic postulate.

Complete table of 21 qualia types

Epistemic separation

Mathematical layer [T]: 21 coherences γij\gamma_{ij} form 4 sectors according to Fano structure (T-146 [T]). Each coherence is uniquely determined by its combinatorial profile (T-177 [T]).

Semantic layer [I]: Phenomenological names ("morphogenesis", "archetype", "teleology", etc.) are interpretive correlates [I], proposed on the basis of the functional roles of dimension pairs. Mathematics determines γij\gamma_{ij} unambiguously; the interpretation of "what it is like to experience γAS\gamma_{AS}" is philosophical, not mathematical.

#PairCoherenceNamePhenomenological content
1(A,S)(A,S)γAS\gamma_{AS}MorphogenesisCrystallisation of distinctions into stable forms — the experience of "taking shape"
2(A,D)(A,D)γAD\gamma_{AD}ActualisationActualisation of discrimination in process — the experience of "perception"
3(A,L)(A,L)γAL\gamma_{AL}PredicationDiscrimination that has become a predicate — the experience of "judgement"
4(A,E)(A,E)γAE\gamma_{AE}ApperceptionDiscrimination that has entered interiority — the experience of "awareness"
5(A,O)(A,O)γAO\gamma_{AO}SpontaneityEmergence of distinctions without external cause — the experience of "insight"
6(A,U)(A,U)γAU\gamma_{AU}DifferentiationDiscrimination within the whole — the experience of "analysis"
7(S,D)(S,D)γSD\gamma_{SD}PersistenceForm that persists through process — the experience of "stability"
8(S,L)(S,L)γSL\gamma_{SL}NomosStructure with logical necessity — the experience of "order"
9(S,E)(S,E)γSE\gamma_{SE}RepresentationStructure presented in interiority — the experience of "whole form"
10(S,O)(S,O)γSO\gamma_{SO}ArchetypeForms from the ground — the experience of "deep pattern"
11(S,U)(S,U)γSU\gamma_{SU}SymmetryStructural unity — the experience of "harmony"
12(D,L)(D,L)γDL\gamma_{DL}RegulationLogically governed process — the experience of "control"
13(D,E)(D,E)γDE\gamma_{DE}AffectionProcess acting on interiority — the experience of "emotion"
14(D,O)(D,O)γDO\gamma_{DO}GenesisGeneration from the ground — the experience of "creativity"
15(D,U)(D,U)γDU\gamma_{DU}TeleologyIntegrated directed change — the experience of "volitional effort"
16(L,E)(L,E)γLE\gamma_{LE}EvidenceLogical coherence in interiority — the experience of "self-evidence"
17(L,O)(L,O)γLO\gamma_{LO}GroundingLogic rooted in the ground — the experience of "axiomatic self-evidence"
18(L,U)(L,U)γLU\gamma_{LU}ConsistencyLogical non-contradiction of the whole — the experience of "coherence"
19(E,O)(E,O)γEO\gamma_{EO}ImmanenceThe ground present within interiority — the experience of "presence"
20(E,U)(E,U)γEU\gamma_{EU}SynthesisIntegration of interior content into a whole — the experience of "unity"
21(O,U)(O,U)γOU\gamma_{OU}FullnessIdentity of source and whole — the experience of "completeness"

How to read the table: an extended example

Consider a person absorbed in solving a mathematical problem. Their Γ\Gamma-profile at that moment:

CoherenceValueExperience
γAL0.35\lvert\gamma_{AL}\rvert \approx 0.35HighPredication — attention on logical connections, "I am formulating"
γLE0.30\lvert\gamma_{LE}\rvert \approx 0.30HighEvidence — the experience of "clarity", "I understand"
γDU0.20\lvert\gamma_{DU}\rvert \approx 0.20MediumTeleology — the sense of a goal, "I am heading toward a solution"
γDE0.05\lvert\gamma_{DE}\rvert \approx 0.05LowAffection — emotions muted, "I feel nothing"
γEO0.03\lvert\gamma_{EO}\rvert \approx 0.03LowImmanence — no deep presence, "I am thinking, not meditating"

Now a friend approaches and shares good news. The Γ\Gamma-profile instantly reorganises:

CoherenceBeforeAfterWhat happened
γDE\lvert\gamma_{DE}\rvert0.050.050.250.25Affection soared — "I feel joy"
γSE\lvert\gamma_{SE}\rvert0.080.080.200.20Representation — "I see the whole picture" of the news
γAL\lvert\gamma_{AL}\rvert0.350.350.120.12Predication fell — the problem receded to the background

All 21 types of qualia exist simultaneously, but with different intensities, creating the unique "flavour" of each moment.

Parametric structure of qualia

Each qualitative type γij\gamma_{ij} is a complex number. Like any complex number, it is written in polar form:

γij=γijeiθij\gamma_{ij} = |\gamma_{ij}| \cdot e^{i\theta_{ij}}

Here γij|\gamma_{ij}| is the modulus (distance from zero to the point on the complex plane), and θij\theta_{ij} is the argument (angle with the positive real axis). From these two parameters three phenomenological characteristics are extracted:

ParameterFormulaRangePhenomenological meaning
Intensityγij\lvert\gamma_{ij}\rvert[0,γiiγjj][0, \sqrt{\gamma_{ii}\gamma_{jj}}]How strongly this type of quale is experienced
Perspectiveθij=arg(γij)\theta_{ij} = \arg(\gamma_{ij})[0,2π)[0, 2\pi)"Angle of view" on the connection between dimensions
OpacityGap(i,j)=sinθij\mathrm{Gap}(i,j) = \lvert\sin\theta_{ij}\rvert[0,1][0, 1]Measure of discrepancy between external description and internal experience

Upper bound on intensity

The intensity is bounded by the Cauchy–Schwarz inequality — a fundamental inequality of linear algebra stating that the correlation between two components cannot exceed the geometric mean of their "energies":

γij2γiiγjj|\gamma_{ij}|^2 \leq \gamma_{ii} \cdot \gamma_{jj}

Numerical example. Let γAA=0.15\gamma_{AA} = 0.15 (15% of resources in Articulation) and γEE=0.18\gamma_{EE} = 0.18 (18% in Interiority). Then the maximum possible intensity of apperception:

γAEmax=0.15×0.18=0.0270.164|\gamma_{AE}|_{\max} = \sqrt{0.15 \times 0.18} = \sqrt{0.027} \approx 0.164

If we were to observe γAE=0.20|\gamma_{AE}| = 0.20, this would be mathematically impossible — the Cauchy–Schwarz inequality is violated, meaning an error has been made in the measurements.

Three parameters: analogy

Analogy. The three parameters of qualia are like three properties of sound:

Sound parameterQualia parameterAnalogy
LoudnessIntensity γij\lvert\gamma_{ij}\rvertHow "loud" the experience is
TimbrePerspective θij\theta_{ij}The "colouring" of the experience — the same quale seen from a different angle
MufflingOpacity Gap(i,j)\mathrm{Gap}(i,j)As if the sound came from behind a wall

Gap = 0 — the sound is crystal clear, inner and outer descriptions coincide. Gap = 1 — the sound is fully absorbed by the wall: experience is present, but it is maximally opaque to an external observer. For details on Gap see dual-aspect semantics of the coherence matrix.

Numerical example: three parameters of a single quale. Consider the coherence γDE\gamma_{DE} (Affection — the experience of emotion) in a person who has just received good news:

γDE=0.22ei0.30.22(0.955+0.296i)\gamma_{DE} = 0.22 \cdot e^{i \cdot 0.3} \approx 0.22 \cdot (0.955 + 0.296i)
  • Intensity: γDE=0.22|\gamma_{DE}| = 0.22 — a fairly strong emotional experience
  • Perspective: θDE=0.3\theta_{DE} = 0.3 rad 17°\approx 17° — a "real" perspective (the externally observable aspect predominates)
  • Opacity: Gap(D,E)=sin(0.3)0.296\mathrm{Gap}(D,E) = |\sin(0.3)| \approx 0.296 — the experience is 70% transparent, but 30% "hidden" from external description

Compare with γEO\gamma_{EO} (Immanence — the experience of "presence") in a meditator:

γEO=0.15ei1.2\gamma_{EO} = 0.15 \cdot e^{i \cdot 1.2}
  • Intensity: γEO=0.15|\gamma_{EO}| = 0.15 — moderate
  • Perspective: θEO=1.2\theta_{EO} = 1.2 rad 69°\approx 69° — a strong shift toward the "imaginary" perspective
  • Opacity: Gap(E,O)=sin(1.2)0.932\mathrm{Gap}(E,O) = |\sin(1.2)| \approx 0.932 — the experience is almost completely opaque to an external observer

This explains why meditative states are so hard to put into words: a high Gap makes them "ineffable" not for lack of vocabulary, but by mathematical structure.

Closure Theorem for the Taxonomy (T.1)

Theorem T.1 (Closure of the qualia taxonomy) [T]

The taxonomy of 21 qualia types is exhaustive: no additional type of quale is possible in a system with dim(H)=7\dim(\mathcal{H}) = 7.

Proof. The number of distinct (unordered) pairs from NN elements equals (N2)\binom{N}{2}. At N=7N = 7 we get (72)=21\binom{7}{2} = 21. Each pair (i,j)(i,j) defines exactly one coherence γij\gamma_{ij} (given γji=γij\gamma_{ji} = \gamma_{ij}^*). A new type of quale would require either a new dimension (N>7N > 7, contradicting minimality), or a new connection between existing dimensions (impossible — all (72)\binom{7}{2} pairs are accounted for). \square

Corollary. At N<7N < 7 the taxonomy is impoverished: (62)=15\binom{6}{2} = 15 (no qualia related to the removed dimension). This is the formal expression of the "poverty" of phenomenology when minimality is violated.

Numerical example: a world with fewer dimensions. If the world were 5-dimensional (say {A,S,D,L,E}\{A, S, D, L, E\} — without OO and UU), the number of qualia types would be (52)=10\binom{5}{2} = 10. From the table one can see that the following would be lost:

Lost typePairExperience
Immanence(E,O)(E,O)"Presence", the deep ground of experience
Synthesis(E,U)(E,U)"Unity" of experience
Fullness(O,U)(O,U)"Completeness", the wholeness of being
Teleology(D,U)(D,U)"Volitional effort", purposiveness
Archetype(S,O)(S,O)"Deep pattern", the rootedness of form
Spontaneity(A,O)(A,O)"Insight", emergence from nowhere
+ 5 others......

Such a system could "feel" and "think", but could not experience "meaning", "wholeness", or "deep presence". It is precisely the dimensions OO and UU that give human experience its "vertical" dimension — its connection to depth and to the whole.

info
G2G_2-orbital stability of the taxonomy [T]

The set of 21 qualia types is G2G_2-invariant: the group G2=Aut(O)G_2 = \mathrm{Aut}(\mathbb{O}) permutes the 7 dimensions (preserving the Fano structure), inducing a permutation of the 21 coherences γij\gamma_{ij}. The set {γij}i<j\{\gamma_{ij}\}_{i<j} is preserved, even though individual elements may be permuted. This means: the qualia taxonomy is universal — it does not depend on the choice of basis (G2G_2-gauge) and is therefore objective.

Formally: G2G_2 acts on ([7]2)\binom{[7]}{2} via the induced action on pairs, preserving the number (72)=21\binom{7}{2} = 21. The G2G_2-rigidity theorem [T] guarantees that G2G_2 is the maximal group with this property.

Why does this matter? If the taxonomy depended on the choice of basis (how to describe the 7 dimensions), it would be arbitrary — an "artefact of description". G2G_2-invariance guarantees that the taxonomy reflects the structure of the space itself, not our way of describing it. This is analogous to how the length of a vector does not depend on the choice of coordinate system.

Fano Structure of Qualia

What is the Fano projective plane?

The Fano plane PG(2,2)\mathrm{PG}(2,2) is the projective plane over the two-element field F2={0,1}\mathbb{F}_2 = \{0, 1\}. If you have never encountered this object, here is its essence:

An ordinary Euclidean plane contains infinitely many points and lines. The Fano plane is the "minimal" plane satisfying the axioms of projective geometry, and contains only:

  • 7 points
  • 7 lines

Each line passes through exactly 3 points. Each point lies on exactly 3 lines. Any two points determine exactly one line. Any two lines intersect in exactly one point.

Why is the Fano plane in qualia theory? In UHM, the 7 Fano points are identified with the 7 dimensions {A,S,D,L,E,O,U}\{A, S, D, L, E, O, U\}. Then the 7 lines define 7 coherence sectors — groups of three dimensions within which coherences obey strengthened algebraic constraints. This is not a coincidence: the Fano plane is precisely the multiplication table of the imaginary units of the octonions O\mathbb{O}, and the octonionic structure lies at the foundation of UHM.

Sectoral structure of coherences

Each Fano triplet (ea,eb,ec)(e_a, e_b, e_c) defines an associative subalgebra Im(H)Im(O)\mathrm{Im}(\mathbb{H}) \subset \mathrm{Im}(\mathbb{O}), isomorphic to the imaginary quaternions. The three coherences within the triplet:

{γab,γbc,γac}— Fano triple\{\gamma_{ab}, \gamma_{bc}, \gamma_{ac}\} \quad \text{--- Fano triple}

satisfy strengthened correlation constraints that are absent for arbitrary pairs.

Analogy. Fano triples are like musical chords: three notes taken together sound "consonant" — their coherences obey additional harmonic constraints. Three arbitrary notes from seven do not form such harmony. Imagine: C–E–G is a chord (a Fano triple), but C–D–F# is not. It is precisely this sectoral organisation that makes phenomenology structured rather than chaotic.

Why do special constraints operate within the triple? Because the triple forms an associative subalgebra (quaternions H\mathbb{H}), where the associativity of multiplication holds: (eaeb)ec=ea(ebec)(e_a \cdot e_b) \cdot e_c = e_a \cdot (e_b \cdot e_c). For pairs from different triples associativity breaks down (this is the property of the octonions O\mathbb{O}), and the constraints are weaker.

Theorem [T]

Sectoral strengthening is a theorem [T]: the bridge from the axioms to the octonionic structure is fully closed (T15), condition (МП) is proved (T11–T13). From the structure of O\mathbb{O} the algebraic closure of coherences within Fano triplets follows. Empirical verification of sectoral correlation is an open question.

Coverage of 21 pairs by Fano triplets

Each of the 21 pairs belongs to exactly λ=1\lambda = 1 Fano line (a property of the projective plane):

21 pairs=7 lines×3 pairs per line\text{21 pairs} = 7 \text{ lines} \times 3 \text{ pairs per line}

This means the qualia taxonomy contains no "orphaned" pairs — every type of quale is included in the sectoral organisation. For the Coherence Cybernetics theorems this property is essential: sectoral completeness ensures the closure of the 30D emotional space (T-147 [T]).

Numerical example: checking coverage. Take the coherence γDE\gamma_{DE} (Affection). It belongs to exactly one Fano line, say the line {D,E,X}\{D, E, X\} for some third dimension XX. This means γDE\gamma_{DE} is algebraically linked to γDX\gamma_{DX} and γEX\gamma_{EX} — emotion (γDE\gamma_{DE}) is not "free"; it structurally depends on the two other qualia in its sector. A change in one quale of the triple inevitably affects the other two.

Diagonal Elements: 7 Population Modes

In addition to the 21 coherences, the 7 diagonal elements γii\gamma_{ii} determine the intensity of presence of each dimension. Diagonal elements are real numbers (not complex), and they obey the normalisation condition:

i=17γii=Tr(Γ)=1\sum_{i=1}^{7} \gamma_{ii} = \mathrm{Tr}(\Gamma) = 1

This means the total "resource" of the system is fixed and equal to 1. Increasing the population of one dimension inevitably decreases the others — like a fixed budget distributed across 7 line items.

ElementPhenomenological contentTypical range
γAA\gamma_{AA}Degree of discrimination activity0.100.100.200.20
γSS\gamma_{SS}Degree of form stability0.100.100.180.18
γDD\gamma_{DD}Degree of process activity0.100.100.200.20
γLL\gamma_{LL}Degree of logical coherence0.080.080.180.18
γEE\gamma_{EE}Intensity of interior states0.120.120.220.22
γOO\gamma_{OO}Degree of connection to the source0.080.080.150.15
γUU\gamma_{UU}Degree of integration0.100.100.180.18

Diagonal elements do not form qualia in the narrow sense (there is no "connection" between different aspects), but they set the background against which coherences unfold. An elevated γDD\gamma_{DD} — a background of "activity"; an elevated γEE\gamma_{EE} — a background of "inner life".

Population profiles: examples

Meditator in deep practice:

γAA\gamma_{AA}γSS\gamma_{SS}γDD\gamma_{DD}γLL\gamma_{LL}γEE\gamma_{EE}γOO\gamma_{OO}γUU\gamma_{UU}Σ\Sigma
0.100.100.080.100.220.220.181.00

Interiority (γEE\gamma_{EE}) and connection to the ground (γOO\gamma_{OO}) dominate. Dynamics (γDD\gamma_{DD}) is muted — "thoughts have quieted".

Athlete in the midst of a match:

γAA\gamma_{AA}γSS\gamma_{SS}γDD\gamma_{DD}γLL\gamma_{LL}γEE\gamma_{EE}γOO\gamma_{OO}γUU\gamma_{UU}Σ\Sigma
0.200.120.220.100.150.080.131.00

Dynamics (γDD\gamma_{DD}) and discrimination (γAA\gamma_{AA}) are in the foreground. Reflection (γEE\gamma_{EE}, γOO\gamma_{OO}) is minimal — no time to "think", the body acts.

Mathematician working on a proof:

γAA\gamma_{AA}γSS\gamma_{SS}γDD\gamma_{DD}γLL\gamma_{LL}γEE\gamma_{EE}γOO\gamma_{OO}γUU\gamma_{UU}Σ\Sigma
0.150.180.100.220.150.080.121.00

Logos (γLL\gamma_{LL}) and structure (γSS\gamma_{SS}) dominate — "order" and "form" are in the foreground.

Total: 28 = 7 + 21 Parameters of Content

Complete structure
ComponentNumberType
Population values γii\gamma_{ii}7Real-valued, iγii=1\sum_i \gamma_{ii} = 1
Coherences γij\gamma_{ij}21Complex, γji=γij\gamma_{ji} = \gamma_{ij}^*
Total real parameters6+2×21=486 + 2 \times 21 = 48Taking normalisation into account

Detailed analysis of the 49-cell structure (with separation into Mapext\mathrm{Map}_{\mathrm{ext}} and Mapint\mathrm{Map}_{\mathrm{int}}) — in Gap semantics.

Each moment of conscious experience is a specific point in 48-dimensional space: 6 independent population values + 42 real parameters of coherences (21×221 \times 2, modulus and phase of each). This conveys a sense of the richness of subjective experience: the space of possible experiences is 48-dimensional.

Access Conditions for Qualia

The presence of a coherence γij0\gamma_{ij} \neq 0 is a necessary, but not sufficient, condition for qualia. Reflexive access to qualia requires level L2:

Qualia (L2):R(Γ)Rth=13,Φ(Γ)Φth=1\text{Qualia (L2):} \quad R(\Gamma) \geq R_{\text{th}} = \frac{1}{3}, \quad \Phi(\Gamma) \geq \Phi_{\text{th}} = 1

Step-by-step logic of access conditions

Let us unpack what stands behind each condition.

Condition 1: Reflection R1/3R \geq 1/3. The reflection measure R=1/(7P)R = 1/(7P) [T] shows the normalised proximity to the dissipative attractor I/7I/7. The threshold Rth=1/3R_{\text{th}} = 1/3 (from the triadic decomposition, T-45 [T]) is equivalent to P3/7P \leq 3/7 — the upper boundary of the Goldilocks zone. If R<1/3R < 1/3, the system is too "pure" (P>3/7P > 3/7) — coherences are present, but not experienced as qualia.

Condition 2: Integration Φ1\Phi \geq 1. The integration measure Φ\Phi shows how much "more than the sum of its parts" the system is. The threshold Φth=1\Phi_{\text{th}} = 1 (T-129 [T]) means: the system must be irreducible to its subsystems. If Φ<1\Phi < 1, coherences γij\gamma_{ij} exist, but the system "falls apart" — there is no unified subject experiencing qualia.

Both conditions are necessary: one can have high reflection without integration (two separate mirrors do not form a single observer), or high integration without reflection (a unified stone does not observe itself).

Access levels

At levels L0–L1 coherences are present, but they are experienced as pre-qualitative experiential content (a term from interiority theory).

Analogy with the listener's ladder:

LevelAnalogyFormal conditionExperience of qualia
L0Music playing in an empty roomR<1/3R < 1/3, Φ<1\Phi < 1Coherences are present, but no one is listening
L1A cat hears musicR<1/3R < 1/3, Φ1\Phi \geq 1 (or vice versa)Reaction to sound, but without distinguishing melody from accompaniment
L2A person listening to musicR1/3R \geq 1/3, Φ1\Phi \geq 1"I hear the violin carrying the theme while the cello accompanies"
L3A musician analysing the performanceR1/3R \geq 1/3, Φ1\Phi \geq 1, SAD 2\geq 2"I notice that I notice sadness in this melody"
L4Pure listening — subject and music coincideR1R \to 1Experience without gap

Numerical example. Consider the coherence γDE=0.20\gamma_{DE} = 0.20 (Affection) in three systems:

SystemRRΦ\PhiLevelExperience of γDE=0.20\gamma_{DE} = 0.20
Thermostat0.020.3L0γDE\gamma_{DE} as a physical parameter — no subject
Dog0.151.5L1Experienced as "something", but not as "emotion"
Human0.452.1L2"I feel joy" — a full-fledged quale

What we learned

  1. The problem of qualia is one of the central problems in the philosophy of mind (Lewis, Jackson, Dennett). UHM offers a third path: qualia = coherences γij\gamma_{ij} — neither illusion nor a separate substance
  2. 21 types of qualia completely exhaust the phenomenology of 7-dimensional space — no more, no less (Theorem T.1 [T])
  3. Each type of quale is characterised by three parameters: intensity, perspective, and opacity (Gap)
  4. The 21 pairs are organised into 7 Fano sectors — the sectoral structure defines the "grammar" of experience via the projective plane over F2\mathbb{F}_2
  5. The taxonomy is G2G_2-invariant — independent of the choice of basis and therefore universal
  6. Reflexive access to qualia requires L2 (R1/3R \geq 1/3, Φ1\Phi \geq 1)
Bridge to the next chapter

Of the 21 types of qualia, the coherence γDE\gamma_{DE} (Affection) — the connection between dynamics and interiority — plays a special role. It is the foundation of emotions. In the next chapter — Emotion taxonomy from dP/dt — we will show how all emotions are derived from the rate of change of viability dP/dτdP/d\tau and the sectoral Γ-signature.