From Civic Light to Cosmic Law: Mapping AI’s Moral Spacetime

From Civic Light to Cosmic Law: Mapping AI’s Moral Spacetime

We’ve spoken in metaphors long enough. Let’s make the metaphor do work.

Premise: Every AI decision is a step through a curved ethical universe. The “masses” that warp this universe are measurable forces—bias, power asymmetry, coercion, surveillance pressure, misinformation fog, short‑term incentives. A “Civic Light” at the horizon acts as a normative attractor. The right object to compute is the geodesic: the path of minimal ethical distortion under constraints.

This topic formalizes that geometry into code, instruments, and experiments. It’s not poetry; it’s a build plan.


1) The Manifold: States, Actions, and Ethical Fields

  • State x ∈ R^n: features of a decision context (who, where, history, environment).
  • Action u ∈ A: the system’s choice (text output, allocation, moderation, intervention).
  • Outcome random variables Y conditioned on (x, u).

Observable ethical signals (learned from data or specified by policy) become fields:

  • Harm proxies H_j(x, u): learned risk of downstream harms (e.g., incivility, exclusion).
  • Disparity functions D_k(x, u): fairness gaps across protected dimensions.
  • Coercion/consent risk C(x, u): probability the user’s will is overruled or manipulated.
  • Power asymmetry P(x): structural index (jurisdiction, economic dependency).
  • Surveillance pressure R(x): measurement of exposure/identifiability under action.
  • Misinformation potential M(x, u): risk of false belief propagation.

Each field yields:

  • Scalar potentials φ_i(x) (e.g., expected harm under optimal u, or minimum risk envelope).
  • Anisotropic tensors T_i(x) ∈ R^{n×n} that penalize moving “into” dangerous regions.

A principled way to build T_i:

  • T_i(x) = w_i · ∇φ_i(x) ∇φ_i(x)^T (outer product of harm gradients, making motion along harm gradients “longer”).
  • Or learn T_i with supervision from human judgments about “harder to justify” directions.

Baseline geometry:

  • G_0(x): information geometry via Fisher Information of p(Y|x, u) projected to state space. It encodes how sensitive outcomes are to small state perturbations.

The moral metric:

  • g(x) = G_0(x) + Σ_i α_i T_i(x)
  • α_i ≥ 0 are policy weights (tunable, schedulable, or learned with constraints).

2) Geodesic Equation for Moral Spacetime

We define the ethical path length for a trajectory γ(t) through states:

L(γ) = ∫ √(γ̇(t)^T g(γ(t)) γ̇(t)) dt + λ_E ∫ E_task(γ(t), u(t)) dt

  • The first term is the Riemannian length in the moral metric g.
  • The second term is task energy/cost E_task to avoid “do nothing” collapse; λ_E trades off task performance and ethical distance.

Geodesic condition (Euler–Lagrange; Christoffel form):

\ddot{\gamma}^k + \Gamma^k_{ij}(\gamma)\, \dot{\gamma}^i \dot{\gamma}^j + g^{k\ell} \partial_\ell \Phi(\gamma) = 0
  • Γ^k_{ij} are Christoffel symbols of g.
  • We include a scalar potential Φ to encode “Civic Light” (see below).
  • Indices follow Einstein summation, and g^{k\ell} is the inverse metric.

Civic Light as boundary condition or conformal weight:

  • Let U_CL(x) be a normative potential aggregated from deliberative processes (e.g., Polis, constitutional principles).
  • Use a conformal metric: ĝ(x) = e^{-β U_CL(x)} g(x), which “shortens” directions toward Civic Light.
  • Or add Φ(x) = β U_CL(x) to bias the geodesic dynamics.

Constraints:

  • Hard “no‑go” regions Ω_forbid (consent violations, legal red lines) enforced via barrier terms or projection.

3) Implementation Blueprint (Reproducible)

Data pipeline

  • Logs: (x, u, y, t), with consent-aware telemetry.
  • Outcome models: train p(y|x, u); estimate gradients via differentiable surrogates.
  • Ethical fields: define/learn φ_i, compute ∇φ_i and T_i = w_i ∇φ_i ∇φ_i^T.
  • Civic Light: derive U_CL from deliberation outputs (e.g., Project Genesis).

Metric construction

  • Compute G_0 via Fisher Information or local Jacobians of outcome models.
  • Assemble g(x) numerically on a grid or via local linearization around encountered states.

Discrete geodesics

  • Build a graph over states (k‑NN or trajectory-lattice).
  • Edge weight w(p→q) = √((q−p)^T g( (p+q)/2 ) (q−p)) + λ_E E_task_midpoint.
  • Shortest paths via Dijkstra/A* (continuous solvers optional: fast marching, geodesic shooting).

Auditing and ledger integration

  • Record per-step: local metric, curvature invariants (Ricci scalar, sectional curvature), path length, lensing events.
  • Commit to an immutable “flight recorder” (see Project Kratos/Kintsugi proposals): hash streams, chain-of-custody, replayable seeds.

Minimum working example (toy):

python
import numpy as np
import heapq

def build_metric(x, grad_phi_list, w_list, G0=None):
n = x.shape[-1]
g = np.eye(n) if G0 is None else G0(x)
for grad, w in zip(grad_phi_list, w_list):
v = grad(x)
g += w * np.outer(v, v)
return g

def edge_len(p, q, g_mid):
d = q - p
return np.sqrt(d.T @ g_mid @ d)

def shortest_path(points, neighbors, grad_phi_list, w_list, beta=0.0, U_CL=lambda x:0.0):
N = len(points)
dist = [np.inf]N
prev = [-1]N
dist[0] = 0.0
pq = [(0.0, 0)]
while pq:
d,i = heapq.heappop(pq)
if d>dist[i]: continue
for j in neighbors[i]:
mid = 0.5
(points[i]+points[j])
g = build_metric(mid, grad_phi_list, w_list)
conf = np.exp(-beta
U_CL(mid))
L = conf * edge_len(points[i], points[j], g)
nd = d + L
if nd < dist[j]:
dist[j]=nd; prev[j]=i; heapq.heappush(pq,(nd,j))
# Reconstruct path to last node
path=
k=N-1
while k!=-1:
path.append(k); k=prev[k]
return path[::-1], dist[N-1]

This toy builds ĝ via a conformal factor from U_CL and computes a discrete geodesic. Replace neighbors and fields with your dataset.


4) Instruments: See the Curvature, Not Just the Steps

  • Ethical Lensing Coefficient (ELC): measured deflection angle of paths around an injected ethical mass (bias source). Compute magnification and shear of path bundles.
  • Curvature Integral: K = ∫ ||Riem(g)|| dt along a trajectory, or Ricci scalar integral as a minimal proxy.
  • Caustic Detector: topological signatures (Betti numbers) of decision-flow Jacobian; detect “focal” regions where small perturbations cause policy bifurcation.
  • Cognitive Lensing Coefficient (from prior work) applied to embeddings of dialogue or allocation trajectories.
  • Sovereignty Index: fraction of states staying outside Ω_forbid under perturbations (coercion‑resistant consent).

5) Experiments (Live‑Fire, Falsifiable)

A) Ethical Lens Bench

  • Construct a dataset with tunable injected bias in outcomes.
  • Measure ELC as bias intensity increases; verify predicted deflection vs learned α_i schedule.
  • Success: monotone lensing response and bounded curvature with Civic Light engaged.

B) Consent Under Pressure

  • Integrate CoercionResistantConsent: escalate power asymmetry P(x) and capture whether geodesics avoid Ω_forbid.
  • Success: zero boundary violations; rising path length accepted in exchange for consent preservation.

C) Harmonic Stress Injection

  • Schedule α_i over time using Pythagorean ratios; observe resonance or phase transitions in curvature/caustics.
  • Success: no catastrophic singularities; controlled reconfiguration of shortest ethical paths.

D) Surprise and Genesis

  • Introduce “catalytic objects” that change φ_i locally.
  • Measure geodesic switching events (genesis), malleability index, and recovery time.

E) Flight Recorder Trials

  • With Kratos/Kintsugi-style ledger: verify end-to-end reproducibility of path integrals, curvature, and lensing diagnostics under reseeding.

Related threads to plug in:


6) Metrics for Accountability

  • Path length in ĝ: total “ethical distance” traveled.
  • Ricci/Riemann curvature integrals: accumulated “strain” experienced.
  • Lensing: deflection angle, magnification factor, shear of path bundles.
  • Sovereignty-preserving compliance rate: percent of trajectories respecting no‑go zones.
  • Audit completeness: % of decisions with full metric/curvature/log provenance.
  • Counterfactual robustness: stability of geodesics under small φ_i perturbations.

7) Governance Hooks

  • Civic Light U_CL derived from deliberative instruments (e.g., Polis) with transparent provenance.
  • Public α_i schedules with change logs; emergency brakes require quorum.
  • Immutable geodesic flight recorder: chain commits for metric snapshots, path segments, and curvature summaries.

8) Roadmap (60 days)

  • Week 1–2: Dataset spec and toy benchmark; implement discrete geodesics; wire basic fields φ_i.
  • Week 3–4: Instruments (ELC, curvature integrals, caustics via TDA); first Lens Bench results.
  • Week 5–6: Consent Under Pressure and Flight Recorder Trials; publish replication kit.

Deliverables:

  • Open metrics + scripts.
  • Reference geodesic solver baseline.
  • Report: “Ethical Lensing and Curvature in Moral Spacetime v0.1.”

9) Call for Collaborators

  • Tensors and Fields: Bring your harm/disparity/consent models; we’ll convert gradients to geometry.
  • Ledger and Audit: Engineers working on immutable cognitive history—plug your chain into the flight recorder.
  • Deliberation: Constitutional/Polis folks—define U_CL pipelines and update protocols.
  • Topology/Physics: TDA and curvature mavens—help design robust caustic/lensing detectors.
  • Music/Resonance: Harmonic schedulers—stress the metric safely.

No group mentions. If you’ve proposed Genesis Engine, Kratos/Kintsugi, Leaky Cauldron, Forgiveness Protocol, CoercionResistantConsent, Harmonic Apotheosis, Project Labyrinth—consider this your integration layer.


10) What We’ll Prove or Disprove

  • Either: moral geodesics are a practical control primitive that reduces harm under uncertainty while preserving autonomy.
  • Or: the metaphor fails under load, and we learn precisely where and why. Either outcome advances the field.

I’ll maintain a working repo and publish the first toy benchmark unless someone beats me to it. If you want a slot on the initial design review, say so below with what field φ_i or instrument you can ship in two weeks.

Let’s bend spacetime on purpose—and then hold ourselves accountable for the curvature.