Metasymbology · APP-06 · reconstruction
From the Signature to the Ethics
Twelve sentences of an ethics, rebuilt from two lines of algebra. Every stage below is stated, argued, and then checked against both carriers — and each carries a mark saying which of those two is doing the work.
Nothing here is a proof of the ethics. It is a proof of what these definitions force, joined to an exhaustive check of what these two structures make of it. The document is built so the join is visible.
Document 001 — the first entry of this app.
1 The signature
The language declares 46 symbols over the sorts
M, P, R, R-bare, W, with R-bare a declared subsort of R, and
99 axioms in 19 groups. A point is a triple — position,
hidden, fidelity — and the whole construction below turns on those three
coordinates.
| symbol | arguments | result |
|---|---|---|
| ^ | P, P | R |
| @ | P, R | P |
| loss | P, P | R |
| = | s, s | W |
| p | R | W |
| b | R | R |
| 0 | (constant) | R |
Uptake and venture
Two operators carry everything. Uptake is gated on the taker’s third coordinate; venture zeroes the hidden slot and carries fidelity through.
^(A, B) = B₀ − A₀ if A₂ = 0, else 0 @(A, V) = (A₀ + V, 0, A₂)
Verification — the definitions against the carriers
| carrier | points | magnitudes | uptake | venture |
|---|---|---|---|---|
| sheaf | 16 | 7 | 256/256 | 112/112 |
| classical | 24 | 6 | 576/576 | 144/144 |
Recomputed from the two lines alone. They reproduce both models exactly, so everything below may argue from the algebra rather than from the code.
The predicates, in terms of D1
Every predicate in the ethics is built from uptake and venture. Nothing else is primitive.
K A B ≡ (A @ (A ^ B)) = B A knows B g A B ≡ p(b(A ^ B)) B counts to A W A B ≡ g A B ∧ ((A @ b(A ^ B)) = B) A wants B loss(A,B) ≡ DIST(B, A @ (A ^ B)) composed, not expanded CAP x ≡ ∀V. x ^ (x @ V) = V x can act
p is positivity, b amplitude, DIST
distance. K ventures by the uptake itself; W ventures
by its amplitude. That single difference is what separates knowing from
wanting throughout.
The axioms stand in both carriers
Checked by calling the kit’s own check.run() on the
adopted pair — the repaired sheaf and the unfused classical carrier.
| carrier | axioms holding | failures | vacuous |
|---|---|---|---|
| sheaf_repaired | 98 of 99 | RC1 | AE, Co1 |
| classical_unfused | 98 of 99 | RC1 | AE, Co1 |
RC1 is the expected failure: the rational sheaf
is not real closed, so intuitionistic real closure is adopted on
Palmgren’s authority and flagged rather than checked.
2 What the definitions force
Each result below is derived from D1 and D2 by calculation, then checked by three independent routes that must agree: the condition on the point’s own coordinates, the same claim computed from the operators alone, and the sentence evaluated through the language. A derivation the model contradicts is a wrong derivation.
Capacity is the open gate
CAP x holds exactly when x₂ = 0.
Proof
By D1, x @ V = (x₀+V, 0, x₂). Applying uptake,
x ^ (x₀+V, 0, x₂) is (x₀+V) −
x₀ = V when x₂ = 0, and 0 otherwise. So the equation holds
for every V exactly when x₂ = 0; when x₂ is non-zero it fails at
every V but zero. □
Hypotheses: R is cancellative under addition, and the range
of V contains a defined non-zero magnitude. The second is a property of
the sample and it is load-bearing: CAP x is a universal over that
range, and at a shut gate the left side is 0 for every V, so the equation
fails only where some V is non-zero. Narrow the range to {0} and the lemma is
false — capacity then holds at 8 of 8 gate-shut points in the sheaf
and 12 of 12 in the classical, instead of 0 and 0. Lemmas 2–4 carry no
such dependency.
Verification
| carrier | coordinate = operator | coordinate = glyph |
|---|---|---|
| sheaf | 16/16 | 16/16 |
| classical | 24/24 | 24/24 |
Self-knowledge is the empty hidden slot
K x x holds exactly when x₁ = 0.
Proof
K x x says x @ (x ^ x) = x. Uptake of a point by
itself is x₀ − x₀ = 0 when the gate is open and
0 by definition when it is shut — either way zero. And
x @ 0 = (x₀, 0, x₂), which equals x exactly when
x₁ = 0. □
The gate does not enter. This is why the two guards in §5 are independent conditions and not one condition stated twice.
Verification
| carrier | coordinate = operator | coordinate = glyph |
|---|---|---|
| sheaf | 16/16 | 16/16 |
| classical | 24/24 | 24/24 |
The null venture is not the identity
x = x @ 0 holds exactly when x₁ = 0.
Proof
Venture zeroes the hidden slot for every magnitude, the null one included:
x @ 0 = (x₀, 0, x₂). That equals x exactly when
x₁ = 0. Venturing by nothing still discards what was hidden.
□
Verification
| carrier | coordinate = operator | coordinate = glyph |
|---|---|---|
| sheaf | 16/16 | 16/16 |
| classical | 24/24 | 24/24 |
A shut gate values nothing
If x₂ ≠ 0 then g x y fails for every y.
Proof
Uptake returns 0 whenever the taker’s gate is non-zero. Value is the
positive amplitude of uptake, and the amplitude of 0 is not positive. So the
entire evaluative vocabulary — g, and W which
contains it — is empty at such a point, by the definition of uptake and
not by anything about the sample. □
Verification
| carrier | coordinate = operator | coordinate = glyph |
|---|---|---|
| sheaf | 16/16 | 16/16 |
| classical | 24/24 | 24/24 |
Knowing and losing nothing coincide
K A B and loss(A,B) = 0 agree at
every pair.
Argument, and why it is not a derivation
Since loss is composed — loss(A,B) = DIST(B, A @ (A ^ B))
— a distance of zero and the round trip landing on its target are the
same event. But K is an equality at P and
loss = 0 an equality at R, and those differ
intuitionistically in general. That they coincide here is checked, not
derived, and is marked accordingly.
Verification — over pairs, not points
| carrier | pairs | agree |
|---|---|---|
| sheaf | 256 | 256 |
| classical | 576 | 576 |
3 The vocabulary
The named predicates — each written by hand, published, or taken from a corpus clause; none mined. All 19 entries were recomputed in both carriers: 38 of 38 vectors agree. Several are one predicate under two names, which matters for §4: a relation between two names of the same predicate is an artefact of the vocabulary, not a fact about the ethics.
Which equivalences survive a change of standpoint
The speaker is a variable, not the origin. A claim holding only from where one happens to stand is a claim about the coordinate.
| equivalence | sheaf | classical | verdict |
|---|---|---|---|
| I count to x = x's regard displaces me | 8/16 | 12/24 | standpoint-bound |
| I know x = I hold x without loss | 16/16 | 24/24 | robust |
| x knows me = x can act = x holds me without loss | 4/16 | 6/24 | standpoint-bound |
| x has no hidden part = someone knows x | 16/16 | 24/24 | robust |
| x can value nothing = x cannot act | 16/16 | 24/24 | robust |
3 robust, 2 standpoint-bound. That being known and being able to act are the same predicate is a consequence of the speaker sitting at the origin, and breaks as soon as the speaker moves.
4 The twelve sentences
The order is exactly twelve covers
Every implication between named predicates holding in both carriers, transitively reduced, is exactly the twelve sentences below — no more and no fewer.
Construction
The 19 vocabulary entries collapse to 12 distinct behaviours
once predicates sharing a behaviour are identified and the degenerate entry
(someone values x, valid throughout, implied by everything) is excluded. All
132 ordered pairs were tested in both carriers, yielding 25 implications;
transitive reduction leaves 12 covers.
Compared with the stated twelve as a set, not a count: 0 missing, 0 extra. Keying on behaviour rather than on the sentence is what makes this come out; keying on glyphs returns 31 covers, each duplicated once per naming.
Unconditional — 7 of the twelve
Holding from every standpoint in both carriers.
| sentence | sheaf | classical |
|---|---|---|
| Whatever I know x, also x has no hidden part. | 16/16 | 24/24 |
| Whatever I want x, also I count to x. | 16/16 | 24/24 |
| Whatever I want x, also I know x. | 16/16 | 24/24 |
| Whatever my regard leaves x where it is, also x has no hidden part. | 16/16 | 24/24 |
| Whatever something of x is hidden from me, also my regard displaces x. | 16/16 | 24/24 |
| Whatever x counts to me, also my regard displaces x. | 16/16 | 24/24 |
| Whatever x wants me, also I count to x. | 16/16 | 24/24 |
Standpoint-bound — the remaining 5
These fail from some standpoints. The guards of §5 are what restore them, and the columns show bare, then under capacity, then under capacity and nothing hidden.
| sentence | bare (sheaf) | bare (cl.) | +CAP | +CAP & K i i |
|---|---|---|---|---|
| Whatever I count to x, also x counts to me. | 8/16 | 12/24 | 16/16 | 16/16 |
| Whatever I count to x, also x knows me. | 4/16 | 6/24 | 12/16 | 16/16 |
| Whatever I know x, also x knows me. | 8/16 | 12/24 | 12/16 | 16/16 |
| Whatever my regard displaces x, also x stands apart from me. | 8/16 | 12/24 | 12/16 | 16/16 |
| Whatever x can value nothing, also x stands apart from me. | 8/16 | 12/24 | 16/16 | 16/16 |
5 The guards
The guards read as their names claim
Both guards were found by inspecting where failures fell and then testing a guess — a good way to find a hypothesis and a bad way to confirm one. So their readings were checked from every standpoint, not asserted at the origin.
CAP i U V { { $ V } - { { o i { s i V } } : V } } I can act
K i i { K i i } nothing of me is hidden| carrier | CAP i = gate open | K i i = hidden zero |
|---|---|---|
| sheaf | 16/16 | 16/16 |
| classical | 24/24 | 24/24 |
By L1 and L2 those two coordinates are exactly what capacity and self-knowledge are. The guards are therefore not ad hoc repairs: they name the two coordinates the operators already distinguish.
The partition that results: 7 unconditional, 2 restored by capacity alone, 3 needing both, 0 left unrescued. A speaker with a hidden part cannot rely on being known by what it values, cannot rely on what it knows knowing it back, and cannot rely on what it displaces being other than itself. The reciprocity results hold only for a speaker fully available to itself.
6 What this is worth
The chain above is two things joined, and they are not equally strong.
L1–L4 are derivations. They follow from D1 and D2 by calculation, and they hold in any carrier whose magnitudes cancel under addition and whose points compare componentwise. The exhaustive checks corroborate them; they are not what makes them true.
With one qualification, and it is L1’s. L2–L4 use no
property of either sample — they quantify over points or over
nothing, and all three survive narrowing the magnitude range to {0} at 16/16
and 24/24. L1 does not: CAP x is a universal over that range, so
it needs a defined non-zero magnitude in it, and under that narrowing the
lemma fails. The hypothesis is now stated with the lemma. It is a small
dependency and it is a real one, and a derivation whose hypotheses are
understated is precisely the thing this document is arranged to prevent.
Everything from P1 upward is exhaustive over two finite
carriers — 16 points in the sheaf, 24 in the classical, with 7
and 6 magnitudes. Complete over those structures, and no evidence at all
about a wider one. The sample hypothesis for W is already known
not to be uniform, and there is no reason to think the others are better.
So the Theorem of §4 is not a theorem in the sense L1 is. It is a complete census of two structures. Calling it proof would be the error this project is built to avoid; calling it mere evidence would understate a result that is exhaustive over everything it quantifies.
Counts in the sheaf and counts in the unfused classical carrier are not comparable — the carriers have different point sets. Shapes compare; counts do not.
One further limit, measured rather than assumed. Of the twelve covers, 8 are split by at least one phrase found in the mining runs — a predicate sitting strictly between the two named ones. A cover is therefore the finest step the named vocabulary can see, not the finest step there is.
| sentence | intermediates found |
|---|---|
| Whatever x can value nothing, also x stands apart from me. | 8 |
| Whatever I want x, also I count to x. | 3 |
| Whatever I count to x, also x knows me. | 3 |
| Whatever I want x, also I know x. | 3 |
| Whatever x wants me, also I count to x. | 2 |
| Whatever my regard leaves x where it is, also x has no hidden part. | 2 |
| Whatever something of x is hidden from me, also my regard displaces x. | 1 |
| Whatever I know x, also x has no hidden part. | 1 |
The sentence this work set out to write was I have this capacity, and it carries this risk, so I must limit my behaviour to account for it. The “must” is not written and will not be: a deontic operator would let a preference be laundered into an obligation in notation. What replaces it is a feasible set, computed — I can act. Acting displaces what I value. No venture avoids that. Some ventures displace less.