# Fields, Geometry, and the Kindness Substrate

***

> *The kindness field is not a metaphor for something soft. It is the social-scale instantiation of what Michael Levin's laboratory measures as bioelectric field coherence — the distributed, substrate-level condition that determines whether a collective system can hold memory of what it is trying to become, or whether it fragments into local optimization and extractive dynamics.*

***

#### Why this page exists

The first page in this section (*Consciousness, Learning, and the Limits of Machine Intelligence*) established the distinction between intelligence and consciousness, grounded VIM's functional claims in IIT, resonance field models, and neurobiological attractor dynamics, and named the MPCM boundary as structural rather than incidental.

This page goes one level deeper: into the *substrate* — the field layer that precedes and enables everything the instruments read. It introduces three convergent bodies of work that together provide VIM with its most precise empirical grounding for the claim that the kindness field is real, that extractive dynamics are real, and that the difference between them is detectable, teachable, and — under the right conditions — transformable.

The three bodies of work are:

* **Michael Levin's bioelectric field research** (Tufts University / Allen Discovery Center) — Tier 1 empirical grounding for field-level collective intelligence in living systems
* **Geesink & Meijer's quantum coherence corpus** (DSM-Research / University of Groningen, 2016–2022) — Tier 1 empirical: 86+ measured biological frequencies fitted to a coherence equation, with independent corroboration of the cancer/field-fragmentation finding
* **The Evdokimov/Meijer octahedral geometry paper** (AQCRCD / OFN framework, 2026) — Tier 2/3: a mathematical formalization whose geometric structure maps with unexpected precision onto VIM's six-state MDP

These are not equivalent in epistemic status. Levin's work and the Geesink/Meijer frequency meta-analysis are peer-reviewed and experimentally validated. The octahedral geometry paper is theoretically rich but rests partly on a foundational framework (Evdokimov et al., 2026) still in preparation. All three are worth holding. None is claimed as proof.

***

### Part 1 — The Bioelectric Field: Levin's Empirical Contribution

#### What Levin's laboratory has demonstrated

Michael Levin's research program at Tufts University has established, through decades of peer-reviewed experimental work, that living systems maintain and repair their form through **bioelectric field coherence** — voltage gradients across tissues that encode not merely what is present but what the system is *trying to become*.

**Collective intelligence precedes individual cell capacity.** Individual cells cannot determine the correct number, size, or position of organs. Tissues do so routinely. The tissue-as-collective navigates what Levin calls *<mark style="color:$primary;">**anatomical morphospace**</mark>* — the space of all possible body configurations — solving a pattern-completion problem that no single cell possesses the information to solve alone. The cognitive medium of this collective navigation is the bioelectric field: ion channel configurations and gap junction connectivity that create voltage gradients readable by the whole before any part has processed them locally.

*(Tier 1: Levin, M. (2024). The multiscale wisdom of the body: collective intelligence as a tractable interface for next-generation biomedicine. BioEssays. doi:10.1002/bies.202400196)*

**The field holds target-state memory.** The organism maintains a distributed bioelectric memory of its target morphology — what it is supposed to look like — and works continuously to reduce the error between current state and target state. This is not stored in any single location. It is a property of the field. When the field is disrupted (by toxin, injury, or genetic perturbation), the body works to restore it. When the field is restored — even artificially, even in the presence of oncogenic mutations — the organism returns toward its target form.

*(Tier 1: Levin, M. (2024). Pio-Lopez, L., Levin, M. (2024). Aging as a loss of morphostatic information: a developmental bioelectricity perspective. Ageing Research Reviews.)*

**Fragmentation is the cancer signature.** When cells disconnect from the bioelectric network — losing access to the field's collective goal information — they default to local optimization: growth and resource acquisition without reference to the whole. This is Levin's precise, empirical description of cancer. The hallmark is not mutation alone; it is the *loss of field membership*. Critically, this fragmentation is reversible: restoring bioelectric connectivity among cells can suppress cancer phenotypes even without changing the underlying genetic mutations.

*(Tier 1: Watson & Levin (2023). The collective intelligence of evolution and development. Collective Intelligence. doi:10.1177/26339137231168355)*

#### The VIM translation

These three findings translate directly into VIM's framework — not as metaphor but as structural analog at a different scale of organization:

| Levin (cellular/tissue scale)                                                               | VIM (social/learning scale)                                                                                                                              |
| ------------------------------------------------------------------------------------------- | -------------------------------------------------------------------------------------------------------------------------------------------------------- |
| Bioelectric field coherence holds collective goal memory                                    | The kindness field holds the community's memory of what it is trying to become                                                                           |
| Individual cells cannot navigate morphospace alone; the field enables collective navigation | Individual learners cannot navigate transformative learning alone; the relational field enables it                                                       |
| Cancer = disconnection from field + local optimization                                      | Giant Pumpkin attractor = disconnection from commons values + extraction toward center                                                                   |
| Field coherence is restorable even in presence of genetic defect                            | Values vector can be reoriented even in institutions with deeply embedded extractive incentives — if field conditions change                             |
| The "hardware" defect can be corrected "in software" by restoring the bioelectric pattern   | Structural institutional failure can be addressed through pedagogical field design — not by fixing individuals but by restoring the relational substrate |

The most important implication for VIM: **the kindness field is not an ethical preference layered on top of a neutral system. It is the substrate condition that determines what patterns are even possible.** A learning environment without a kindness field is not a neutral learning environment — it is one in which only extractive attractor patterns can stabilize. The biology is direct on this point. The social analog is what VIM is designed to make legible.

*Epistemic note: The claim that Levin's bioelectric findings apply at social scale is a Tier 2 structural analogy. The cellular-scale findings are Tier 1. The analogy is theoretically coherent and generative; it is not a claim of identity.*

***

### Part 2 — The Geesink/Meijer Empirical Layer: Frequencies of Coherence and Decoherence

#### What the frequency meta-analysis established

Hans Geesink and Dirk Meijer (with collaborators including Marcus Schmieke) have conducted a systematic meta-analysis of electromagnetic frequency patterns in biological systems across approximately 1200 biomedical and quantum physical publications spanning 1970–2022. The core empirical finding: biological systems — including microtubules, stem cells, proteins, DNA, and EEG/MEG brain wave patterns — cluster at discrete, predictable frequency positions described by a quantum coherence equation:

**En = ħωref · 2^q · 3^m**

This produces a 12-tone scale-invariant frequency lattice, with approximately 86 measured biological frequencies fitted to coherent eigenstates at mean error below 2%, and a corresponding set of decoherent frequencies mapped to the gaps between eigenstates.

*(Tier 1: Geesink, J.H. & Schmieke, M. (2022). Organizing and Disorganizing Resonances of Microtubules, Stem Cells, and Proteins Calculated by a Quantum Equation of Coherence. Journal of Modern Physics, 13, 1530–1580. doi:10.4236/jmp.2022.1312095)*

*(Tier 1 anchor: Geesink, J.H. & Meijer, D.K.F. (2017). Bio-soliton model that predicts non-thermal electromagnetic frequency bands, that either stabilize or destabilize living cells. Electromagnetic Biology and Medicine, 36(4), 357–378. doi:10.1080/15368378.2017.1389752)*

#### The cancer/coherence finding — independent corroboration of Levin

Geesink and Meijer demonstrated, through analysis of approximately 120 biomedical studies on cancer, that cancer-promoting and cancer-inhibiting electromagnetic frequency bands fit precisely into the decoherence versus coherence positions of the equation. Their formulation parallels Levin's exactly: "A cancer cell may escape from the essential interactions with the surrounding healthy cells and may exhibit an individual (independent) activity if the healthy frequency spectrum is perturbated."

Two independent research programs — one using bioelectric voltage measurement in living tissues (Levin), one using meta-analysis of electromagnetic frequency distributions (Geesink/Meijer) — describe the same phenomenon from different directions: **cancer as disconnection from the collective coherence field, with local optimization as the resulting attractor**. This convergence across independent methodologies is the strongest empirical grounding VIM's Giant Pumpkin / Commitment Pool distinction currently has at the biophysical scale.

*(Tier 1 convergence: both programs are peer-reviewed, experimentally validated, and methodologically independent.)*

#### The four-valued logic and the tertium non datur

The Geesink/Schmieke (2022) paper introduces a structural element that directly converges with VIM's TIF epistemic architecture. The authors note that classical Aristotelian logic "reaches its limitation in describing the life process, as it can distinguish objective matter from subjective consciousness and fails to understand the interaction between both and the **intermediate realm of mixed subjectivity which escapes as the** ***tertium non datur***."

Their proposed four-valued logical structure (Table 1 in the paper) describes the life process across four levels: water dipole molecules (material substrate) → dipole-wave quanta (field level) → Bose-Einstein condensate wave quanta (coherent collective state) → integrated information state of quantum vacuum (meta-level). The third level — the iterative, self-similar fractal process between the decoherent and the fully coherent — is precisely what their *tertium non datur* names.

In VIM terms: **this is the I (Indeterminacy) axis.** TIF's three-dimensional logic was developed independently by Smarandache as a formal epistemic framework. The Geesink/Meijer corpus arrived at the same structural requirement from biophysics. Both identify an irreducible third zone between the coherent and the decoherent — not a failure of measurement but a genuine ontological feature of living systems navigating between attractor states.

The pedagogical implication is significant: **teaching learners to tolerate the I-axis is not merely a cognitive coping strategy. It is training the learner's system to remain in the biophysically productive zone — the zone where new coherent patterns can nucleate — without prematurely collapsing to either the frozen coherence of S0 or the decoherent fragmentation of S4/S5.**

*Epistemic note: The four-valued logic in Geesink/Schmieke operates at the quantum/molecular scale. The TIF correspondence is a structural analogy (Tier 2), not a claim of identity across scales.*

***

### Part 3 — The Octahedral Geometry: Structure of the MDP

#### The paper and its claim

Evdokimov and Meijer (2026) propose that the octahedral graph K₂,₂,₂ — six vertices, twelve edges, automorphism group of order 48 — is the minimal combinatorial structure capable of encoding six independent resonant channels. Its Laplacian spectrum (eigenvalues 0, 4, 4, 4, 6, 6) maps through the dodecahedral vacuum manifold — via the golden ratio as spectral mediator — to produce the 12-tone AQCRCD frequency lattice that the Geesink/Meijer empirical work identified.

VIM does not adopt the cosmological claims of this framework. What VIM takes from it is something more modest and more useful: **a geometric structure whose properties map with unexpected precision onto the six-state MDP, providing formal grounding for several of VIM's most important structural claims.**

*(Tier 2/3: Evdokimov, O. & Meijer, D.K.F. (2026). A Unified Geometric Framework for the Architecture of Reality, based on Octahedral Geometry and an Acoustic, Scale-invariant, Power Spectrum. Academia.edu preprint. Note: the foundational OFN mathematical framework (Evdokimov et al., 2026) is cited as in-preparation; treat as Tier 2/3 pending independent verification.)*

#### The structural homology

<figure><img src="/files/BwQYT9J2NZHUFBEbyUaN" alt="" width="563"><figcaption><p>Figure 2. VIM MDP as octahedral structural homology.<br>Six states as three antipodal pairs (S0↔S3, S1↔S4, S2↔S5).<br>Red dashed lines = antipodal non-edges (direct transitions structurally excluded).<br>Teal lines = valid transitions toward S3 (kindness field active, σ above threshold).<br>Amber lines = failure transitions (values vector captured).<br>Equatorial plane = MPCM threshold at σ_crit = π/4.<br>Policy π at inversion center — not a state, the orienting function.<br>TIF axis labels: T (z-axis, coherence type), I (x-axis, indeterminacy/adjacent possible),<br>F (y-axis, dissolution with or without kindness field)</p></figcaption></figure>

The octahedral graph K₂,₂,₂ is defined as **three pairs of vertices where every vertex connects to all vertices not in its own pair.** The antipodal pairs — the non-edges — are structurally excluded connections.

VIM's six-state MDP has exactly this structure:

<table><thead><tr><th width="172.25">Octahedral axis</th><th width="224.87109375">VIM antipodal pair</th><th>Structural logic</th></tr></thead><tbody><tr><td>z-axis (vertical)</td><td><strong>S0 ↔ S3</strong> Frozen Order / Holarchic Flow</td><td>Opposing coherence <em>types</em>, not chaos vs. order. S0 is single-frequency lock. S3 is full distributed coherence. Both are high-internal-consistency states — their opposition is in values vector direction, not entropy level.</td></tr><tr><td>x-axis (horizontal)</td><td><strong>S1 ↔ S4</strong> Productive Disequilibration / Reversion</td><td>Same perturbation energy, opposing trajectory. S1 is the crack with kindness field — generative uncertainty. S4 is the same energy level with values vector captured by the extractive attractor.</td></tr><tr><td>y-axis (depth)</td><td><strong>S2 ↔ S5</strong> Vacant Place / Traumatic Chaos</td><td>Both involve categorical dissolution. S2 is dissolution with kindness field — structured openness, the Neither/Nor. S5 is dissolution without field — Markov blanket collapse, topology loss.</td></tr></tbody></table>

**Why there is no direct arrow from S0 to S3:** In the octahedral graph, antipodal vertices share *no edge* — they are structurally excluded connections (the red dashed lines in Figure 2 above). The spectral gap λ=4 represents the energy cost of crossing the antipodal axis. There is no shortcut. The path from frozen order to holarchic flow must traverse S1 (productive disequilibration) and S2 (vacant place). This is consistent with Mezirow's transformative learning theory (the disorienting dilemma cannot be bypassed), Levin's morphogenetic field dynamics (the system must pass through the supersaturated state before new structure can nucleate), and the Geesink/Meijer coherence model (stable coherent eigenstates cannot be reached without passing through the productive indeterminacy zone).

#### The policy π and the MPCM threshold

The paper's coherence parameter σ ranges from 0 (complete decoherence) to π/2 (maximum coherence at n=6 channels active). A critical bifurcation threshold occurs at **σ\_crit = π/4**, where exactly 3 of 6 channels are active:

> Below this threshold, dynamics pull toward extraction and fragmentation. \
> Above it, dynamics pull toward full distributed coherence.

This is the formal expression of what VIM calls the MPCM boundary — not as a wall but as a **bifurcation threshold in a coherence field.** Below the threshold, the system is in the restorative-toward-extraction regime. Above it, dynamics pull toward full distributed coherence.

This formalizes the Simulation 2 finding: when the kindness field is weak (σ < π/4), extraction agents cross the MPCM boundary because the dynamics pull toward fragmentation. When the kindness field is sufficient (σ > π/4), the boundary becomes structurally enforceable — not by rule but by field condition.

The **policy π** — the decision function that determines which transitions are available — maps onto the inversion center of the octahedron: the point equidistant from all six vertices. It is not a state. It is the orienting function that knows where all states are relative to itself. This is precisely VIM's claim: ***π is the living agent's capacity for navigation — the integrated instrument reading that is not itself a state but is what moves between states.***

#### The TIF axis correspondence

VIM's neutrosophic TIF logic (Truth · Indeterminacy · Falsity) corresponds to the three octahedral axes:

<table><thead><tr><th width="172.58203125">TIF component</th><th width="144.703125">Octahedral axis</th><th width="140.5625">State pair</th><th>Pedagogical significance</th></tr></thead><tbody><tr><td><strong>T — Truth</strong></td><td>z-axis</td><td>S0 ↔ S3</td><td>Both poles involve high internal consistency. The T axis is not true vs. false — it is the axis of <em>coherence type</em>: extractive coherence vs. generative coherence.</td></tr><tr><td><strong>I — Indeterminacy</strong></td><td>x-axis</td><td>S1 ↔ S4</td><td>The productive uncertainty zone. S1 is indeterminacy with kindness field — the adjacent possible, generative potential energy. S4 is indeterminacy captured by extraction — the same energy, closed. The I axis is where learning lives.</td></tr><tr><td><strong>F — Falsity/dissolution</strong></td><td>y-axis</td><td>S2 ↔ S5</td><td>Both poles involve categorical dissolution. S2 is dissolution that opens — <strong>unknowing as practice,</strong> the quasi-crystal state forming in the vacant place. S5 is dissolution that collapses — topology loss, no organizing field.</td></tr></tbody></table>

**The pedagogical implication of the I axis is the deepest contribution this geometry makes to VIM.**

Teaching learners to tolerate indeterminacy is not merely a coping strategy for uncertainty. It is the activation of the x-axis of the octahedral field — the axis along which the system has access to the adjacent possible. High I-tolerance means the system can remain in S1 (productive disequilibration) without collapsing prematurely to S4 (reversion). This is what contemplative practice trains. This is what trauma-informed pedagogy protects. And this is what the kindness field makes possible: the field condition that holds the I-axis open long enough for new structure to nucleate.

The quasi-crystal is the material expression of this: a structure with symmetries that the prior representational space said were impossible, that formed because the system remained in the supersaturated state — the S1/I-axis zone — long enough. Not because it forced a particular outcome, but because it held the potential energy of the adjacent possible without premature closure.

#### The four instruments and the coherence ODE

The paper's governing equation for coherence evolution maps onto VIM's four instruments with precision that suggests the instruments are not an arbitrary pedagogical choice — they reflect a structural property of coherent living systems:

**dC/dt = α(C\* − C) + βG − γS\_eff − δ**

<table><thead><tr><th width="134.5859375">ODE term</th><th width="235.71875">Instrument</th><th>Function</th></tr></thead><tbody><tr><td>α(C* − C)</td><td>♥ Relational Compass</td><td>Restorative pull toward kindness equilibrium. The compass orients toward the values vector; α is the strength of that pull; C* is the target coherence level the field is trying to maintain.</td></tr><tr><td>βG</td><td>♣ Dimensional Integration</td><td>Geometric/structural input from the ecosystem. The network's topology — its Ostrom governance structure, its holarchic organization — contributes directly to the rate of coherence change.</td></tr><tr><td>γS_eff</td><td>♠ Somatic Gyroscope</td><td>Thermodynamic stress load. High stress increases γS_eff, suppressing coherence regardless of relational and structural conditions. The body's threat response is the dominant term when it activates.</td></tr><tr><td>δ</td><td>♦ Cognitive Radar</td><td>Entropic drift — attention capture, epistemic scatter, the cost of operating in a high-noise information environment. The radar's function is to reduce δ by naming and filtering the drift.</td></tr></tbody></table>

This is not a forced mapping. The four terms emerge naturally from the dynamics of any coherence field, and VIM's four instruments were independently developed as the navigational capacities required for human agents in AI-mediated environments. Their correspondence suggests that the instruments are not an arbitrary pedagogical choice — they reflect a structural property of coherent living systems.

***

### Part 4 — What This Means for Learning in AI-Mediated Environments

#### S5 is not on the octahedral surface

One finding from the geometric analysis deserves special attention because it is precise in a way that previous framings were not.

Traumatic chaos (S5) is characterized in the framework as Markov blanket collapse — the loss of the boundary that defines the difference between self and environment. In the octahedral geometry, this translates to something specific: **S5 is not a vertex on the octahedral surface. It is a collapse inward — a loss of the topology itself.**

The octahedral graph describes states that are connected within a coherent field. S5 is what happens when the field itself dissolves — not a position within the map but the loss of the map's topology. Recovery from S5 requires field restoration before state navigation becomes possible. This is the empirical claim of trauma-informed practice, the exact mechanism Levin's bioelectric field work describes at cellular scale, and what the Geesink/Meijer coherence work describes as total decoherence: a system that has lost access to the coherent eigenstate positions entirely.

This also explains why dysregulated states in toxic cultures are transient but not trivial. The school of fish reconstitutes — but only because the ocean continues. When the ocean itself is degraded — in climate terms, in social terms — the reconstitution takes longer, costs more, and may not reach the prior coherence level.

#### Indeterminacy as practice, not as problem

The I axis — S1 ↔ S4 — is where most of the pedagogically significant action occurs. It is the zone of productive uncertainty, of adjacent possible, of the quasi-crystal forming in the supersaturated state. It is also the zone of highest capture risk: S4 (reversion) is right there, sharing the same energy level, distinguished only by values vector direction.

Teaching learners to inhabit the I axis without prematurely collapsing it — in either direction — is the contemplative skill that AI-mediated environments most urgently require. The information torrent is permanently destabilizing. The question is not how to eliminate instability but how to remain present to it without closing (S4) or dissolving (S5).

This is what the meditation station simulation is designed to teach: not calm as a permanent state but the *capacity to move through the full state space without getting stuck* — and to find the path back to S3 from wherever you are. The bioelectric field visualization (Figure 1, above) makes this visible at the substrate level: the difference between a field that holds distributed memory and one that fragments into local optimization is detectable before it is nameable, felt before it is understood.

#### The holarchy states remain dynamic

Holarchic flow (S3) is not a destination to be secured. It is not the quasi-crystal finished and fixed. It is the field condition within which quasi-crystal-like patterns can form, dissolve, and reform — always maintaining the capacity for future plasticity.

The octahedral framework makes this precise: S3 is the maximum-coherence attractor (n=6 channels active, σ approaching π/2), but the coherence parameter is dynamic, governed by the ODE. The S3 maintenance loop requires ongoing relational energy. The moment any of the four instrument terms degrades sufficiently, σ begins to fall.

This is the framework's deepest truth: **emergence can be guided, not captured.** The holarchy is always in motion. The instruments are always needed. The repair cycle is always available. The kindness field is always the prior condition.

***

### Summary&#x20;

**What VIM contributes to the RINHUMAI collaboration:** The TIF axis mapping, the 4-instrument ODE correspondence, the MPCM boundary as bifurcation threshold, the S5-as-topology-collapse finding, and the embodied 6DOF / 6-vertex correspondence are original VIM contributions — developed independently and offered as a pedagogical instantiation of the biophysical dynamics Meijer's framework describes at cosmological and cellular scales.

**What VIM does not claim:** That octahedral geometry IS the MDP (structural homology, not identity). That consciousness is σ approaching π/2 (VIM brackets consciousness claims per the IIT/Wilber orientation document). That the AQCRCD eigenfrequencies directly govern learning states (this would require Tier 1 empirical support VIM does not have).

***

| Concept                                                        | Source                               | VIM application                                                                                | Epistemic tier                                                   |
| -------------------------------------------------------------- | ------------------------------------ | ---------------------------------------------------------------------------------------------- | ---------------------------------------------------------------- |
| Bioelectric field coherence holds collective goal memory       | Levin (2024), Tier 1 empirical       | Kindness field as structural substrate, not ethical overlay                                    | Tier 1 (cellular); Tier 2 (social analog)                        |
| Cancer = field disconnection + local optimization              | Watson & Levin (2023), Tier 1        | Giant Pumpkin = commons disconnection + extraction; reversible by field restoration            | Tier 1 (cellular); Tier 2 (institutional analog)                 |
| 86+ biological frequencies fit coherence equation at <2% error | Geesink & Schmieke (2022), Tier 1    | AQCRCD eigenfrequency structure as empirical substrate of coherence/decoherence dynamics       | Tier 1 (frequency measurement); Tier 2 (consciousness extension) |
| Cancer-promoting frequencies cluster at decoherence positions  | Geesink & Meijer (2017), Tier 1      | Independent corroboration of Levin's cancer/fragmentation finding from EMF direction           | Tier 1 (EMF meta-analysis)                                       |
| Four-valued logic / tertium non datur                          | Geesink & Schmieke (2022), Tier 2    | Converges with TIF's I-axis: the irreducible third zone between coherent and decoherent        | Tier 2 structural convergence; Tier 3 identity claim             |
| Octahedral graph: 6 vertices, 3 antipodal non-edge pairs       | Evdokimov & Meijer (2026)            | VIM 6-state MDP maps onto antipodal structure; S0↔S3 non-edge explains missing arrow           | Tier 2 structural homology                                       |
| σ\_crit = π/4 bifurcation threshold                            | Evdokimov & Meijer (2026)            | MPCM boundary as bifurcation threshold, not wall; kindness field determines which side         | Tier 2                                                           |
| 4-term coherence ODE                                           | Evdokimov & Meijer (2026)            | Maps onto 4 VIM instruments (♥♣♠♦); instruments are not arbitrary                              | Tier 2                                                           |
| TIF axes ↔ octahedral axes                                     | VIM original (this page)             | T=z-axis coherence type; I=x-axis indeterminacy/adjacent possible; F=y-axis dissolution        | Tier 3 generative                                                |
| S5 as topology collapse, not surface state                     | VIM original (this page)             | Traumatic chaos is field loss, not state transition; recovery requires field restoration first | Tier 3                                                           |
| Quasi-crystal as S3 process metaphor                           | Materials science / Shechtman (1982) | S3 is ordered, self-similar, plastic — not a fixed endpoint but a dynamic condition            | Tier 3                                                           |

### Related pages

* *Consciousness, Learning, and the Limits of Machine Intelligence* — IIT, resonance models, neurobiological attractor grounding
* *Modeling Holarchic Transformations* — the six-state MDP with state descriptions, poetry, and image series
* *Dashboard Dials v6* — the four instruments in full
* *Living Systems in Motion* — the simulation environment where these field dynamics are encounter-able

***

*Citations:*

*Evdokimov, O. & Meijer, D.K.F. (2026). A Unified Geometric Framework for the Architecture of Reality, based on Octahedral Geometry and an Acoustic, Scale-invariant, Power Spectrum. Academia.edu preprint.*

*Geesink, J.H. & Meijer, D.K.F. (2017). Bio-soliton model that predicts non-thermal electromagnetic frequency bands, that either stabilize or destabilize living cells. Electromagnetic Biology and Medicine, 36(4), 357–378. doi:10.1080/15368378.2017.1389752*

*Geesink, J.H. & Schmieke, M. (2022). Organizing and Disorganizing Resonances of Microtubules, Stem Cells, and Proteins Calculated by a Quantum Equation of Coherence. Journal of Modern Physics, 13, 1530–1580. doi:10.4236/jmp.2022.1312095*

*Levin, M. (2024). The multiscale wisdom of the body: collective intelligence as a tractable interface for next-generation biomedicine. BioEssays. doi:10.1002/bies.202400196*

*Pio-Lopez, L. & Levin, M. (2024). Aging as a loss of morphostatic information: a developmental bioelectricity perspective. Ageing Research Reviews, 97:102310.*

*Watson, R. & Levin, M. (2023). The collective intelligence of evolution and development. Collective Intelligence. doi:10.1177/26339137231168355*

*Zhang, G. & Levin, M. (2025). Bioelectricity is a universal multifaceted signaling cue in living organisms. Molecular Biology of the Cell, 36(2).*

***

*Humanity++ · Karen Doore · April 2026* *Open source · CC BY-SA 4.0*


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