Human–Machine Convergence

Madhyamaka and relational semantics

Rajesh Ranjan Mahapatra

A first-principles account of why Madhyamaka does not reduce reality to relations, and a practical four-dependence audit for testing semantic labels under change.

© 2026 Rajesh Ranjan Mahapatra. 28 min read

Madhyamaka and relational semanticsAll Human–Machine Convergence

Buddhist and East Asian models of mind

Madhyamaka and relational semantics

A semantic system escapes intrinsic labels only when it treats its relations, boundaries and designations as conditioned and revisable, rather than making a fixed graph the new essence.

TLDR

  1. Madhyamaka rejects self-established nature, not the practical functioning of conventional things.
  2. Dependent arising does not install relations as the hidden substance beneath objects.
  3. Relational representations capture context and contrast, but do not alone settle reference, truth or authorised use.
  4. The key failure is edge reification: moving intrinsic nature from nodes into a frozen relation graph.
  5. Audit drivers, decomposition, differences and designation before reusing a semantic label under changed conditions.

The label that survived its own meaning

A public-benefit team uses a model to place applications into a priority review queue. The model was trained under one policy, one population mix and one definition of urgency. Six months later, the policy changes. Housing instability now counts more heavily, a new document source becomes authoritative and the queue serves a different purpose.

The old model still returns the same score for the same applicant. Its tests pass. Its features have not drifted. The label priority review appears stable. Yet the action it licenses is no longer the same action, because the relations that made the label useful have moved.

The puzzle is not whether the score is reproducible. It is whether a reproducible label can keep its meaning after its conditions change.

When the net moves

Imagine a fishing net stretched between four posts. Mark one intersection with a bead. Pull the upper-left post. The bead moves, although nothing inside the bead instructs it to move. Its position is produced by tensions distributed through the net.

The obvious lesson is relational: the bead is where it is because other things are where they are. A less obvious question follows. Are the tensions themselves fixed properties? Each tension depends on the material, the knots, the posts, the pull, the weather and the boundary we chose when we called this section of cord a net. Replacing isolated objects with relations does not end the search for intrinsic nature. It can simply move the supposed intrinsic nature from the bead into the lines.

A net with no self-standing knot
Conceptual figure
A curved net whose centre changes position under four dependencies Four labelled forces called causes, parts, contrasts and designation pull a woven net. A central label sits at an intersection rather than existing independently of the net. Drivers Parts Contrasts Designation semantic label
The label is not a bead with meaning sealed inside it. Its usable position is produced by several dependencies, and those dependencies are also conditioned. The practical question is which pull can move it enough to change a decision.

Madhyamaka begins from a related pressure on explanation. The target is svabhāva, often translated as intrinsic nature, own-nature or self-existence. A thing with svabhāva would be what it is from its own side, not through causes, parts, contrasts, cognition or designation. Nāgārjuna's arguments repeatedly ask whether familiar phenomena can bear that burden.

A cause cannot be a cause without an effect. A whole cannot be the same as its parts, wholly different from them, or located as an extra component beside them. A long object is long relative to a comparison and a measure. A person is not found as an independent owner behind body, memory, intention and social recognition. Yet causes work, wholes are repaired, lengths are measured and people keep promises. Emptiness removes self-establishment, not conventional efficacy.

Thought experiment 1The chariot with no final part

Replace a chariot's left wheel. Then its axle, frame, seat and right wheel. Preserve its route, registration and use. At which replacement does the original chariot cease? A material-essential answer needs one privileged part. A pattern answer needs a privileged pattern. A historical answer needs a privileged lineage. A social answer needs a community able to recognise and contest the designation.

The case does not prove that chariots are unreal. It reveals that our ordinary judgement uses several criteria without discovering a final chariot-essence. Change the legal purpose from transport to museum preservation and the same replacements receive a different verdict. The boundary follows the question being asked.

Three searches for the chariot
Conceptual reconstruction
An exploded chariot, an assembled chariot and a chariot in use The first view searches among parts, the second within an assembled configuration, and the third within a route and purpose. None reveals a separate chariot essence. Search the parts Search the assembly Search the use No part is “the chariot” No extra whole appears Route and purpose stabilise use
The chariot is neither discovered as one privileged part nor added as a second object after assembly. Conventional identity becomes usable through coordinated material, historical and practical criteria.

The cup that became a paperweight

Place a ceramic cup on a kitchen table. It holds tea, fits a hand and participates in a familiar practice of drinking. Move the same object to a studio after its handle breaks. It now holds brushes. Put it on a stack of papers beside an open window and it becomes a paperweight. Place it behind museum glass and it becomes evidence of a manufacturing tradition.

The material object did not become arbitrary. Its weight, cavity, fragility and history constrain each use. Calling it a parachute would not make it function as one. Yet no single material inspection reveals which of the four descriptions is the only real one. The operative identity depends on a purpose, a contrast class and a community of use.

This gives conventional truth a disciplined middle position. Convention is not whatever a speaker wishes. It is a coordinated practice answerable to affordances, history and consequences. At the same time, those constraints do not condense into an intrinsic “cupness” sealed inside the clay. Dependence makes a designation accountable without making it absolute.

The engineering analogue is a risk label whose numerical features constrain its use but do not determine the action independently of policy. A score can be well formed and still be misdesignated. The cup case shows why the audit must preserve both sides: material or computational constraint, and purpose-sensitive designation.

Textual foundation

In the Mūlamadhyamakakārikā, dependent arising, emptiness and dependent designation are tied together. Contemporary scholarship disagrees about how strongly to read the ontological, semantic and dialectical consequences. It does not disagree that a simplistic nihilist reading misses Madhyamaka's defence of conventional practice.

The distinction between conventional and ultimate truth matters here. Conventional truth is not a pile of false appearances awaiting replacement by an ultimate substance. It includes the transactions through which language, causation, inference and ethical practice function. Ultimate analysis asks whether anything in those transactions is self-established. It does not uncover a more basic object called emptiness.

That last point prevents the first major error in comparison. Emptiness is not a hidden relational medium. If relations were the final furniture of reality, they would inherit the very independence denied to objects. Madhyamaka analysis also asks what makes a relation a relation, where its terms begin, and which conceptual practice identifies it.

The argument in one pass
Chart · flow
flowchart TD
  A["When the net moves"] --> B["Emptiness without hidden relations"]
  B --> C["Where relational semantics stops"]
  C --> D["The four-dependence audit"]
  D -. "re-test" .-> A
  classDef first fill:#0a1424,stroke:#5B5CF6,stroke-width:2px,color:#e6f3ff
  classDef step fill:#0a1424,stroke:#3f7da0,stroke-width:1px,color:#e6f3ff
  class A first
  class B,C,D step
A structural route through Madhyamaka and relational semantics: from When the net moves to Govern the conditions under which the…. Reading use: follow the relation, then return to the surrounding argument for evidence and limits.

Emptiness without hidden relations

Suppose we accept that a word gains significance through its place in a language. Have we reached Madhyamaka? Only if we forget to ask what constitutes the language, the places and the relation called “gains significance”.

Madhyamaka literature analyses several forms of dependence. Three recur prominently: dependence on causes and conditions, dependence of wholes on parts, and dependence on conceptual designation. For semantic systems, a fourth dependency deserves separate visibility: contrast. “Hot” is intelligible against “cold”, “urgent” against “routine”, and “safe” against a reference class of risks. This fourth item is a practical extension for semantic analysis, not a claim that Nāgārjuna taught a four-part engineering framework.

Why say these dependencies do not “bottom out”? Consider a causal relation. To identify a cause, we need a time window, a candidate effect, a background set of conditions and some account of what would happen under intervention. Change the window and a trigger becomes a background condition. Change the effect and the relevant cause set changes. The relation is not imaginary, but neither does it arrive pre-cut with its own complete boundary.

Mereological dependence has the same structure. A document can be decomposed into pages, clauses, tokens, database fields or evidential propositions. None is the uniquely correct set of parts for every task. Conceptual dependence adds the rules by which an investigator recognises a clause, a person or a risk category. Contrastive dependence adds the alternatives against which a distinction matters. A dependency is real enough to support intervention while still depending on a specified grain, purpose and comparison.

This matters because engineers often use “relational” as if it named one sufficient mechanism. In practice, relations are typed. Co-occurrence, causation, legal entitlement, similarity, temporal succession and social recognition support different inferences. A model that stores one type cannot silently claim another. The question is never only whether two items are connected. It is what kind of connection is represented, what generated it and which action that connection may licence.

Intervening on a label's conditions
Causal-intervention diagram
A causal diagram showing four dependencies feeding a semantic label and an intervention on designation Drivers, decomposition, differences and designation influence a label. A do-intervention changes designation while holding the model score fixed, revealing that operational meaning can change without a numerical change. Driversdata and history Decompositionparts and boundary Differencescontrast class Designationrule and purpose “priority review”operational meaning queue action do(policy := new)
Holding a model score fixed while intervening on policy can change what the label authorises. The intervention exposes a dependency that ordinary reproducibility tests miss.

The figure expresses the paper's central mechanism. A label is reified when a system treats it as invariant under interventions that alter what made it meaningful. The familiar failure is to freeze the node: “this applicant is intrinsically high priority”. A subtler failure freezes the edges: “the label is relational, so its meaning is secured by the current graph”. But the graph depends on data history, feature construction, contrast classes, policy and use.

Edge reification is the mistaken belief that a fixed relation structure has escaped intrinsic nature. It is the reason a system can be thoroughly relational and still be brittle.

Thought experiment 2The perfect lexicon in a sealed room

A machine receives every sentence ever written in a fictional language. It learns every co-occurrence, paraphrase, entailment pattern and syntactic dependency. Inside the corpus, “mora” behaves exactly as a weather term should. The machine can complete forecasts and correct grammar. It has never encountered weather, a speaker's intention or an action conditioned on rain.

Now connect the machine to two worlds. In World A, speakers use “mora” for rain. In World B, a coordinated prank uses the same corpus but speakers use “mora” for falling ash. The internal relation graph is identical. Which world fixes the reference?

Distributional form carries rich information. The thought experiment asks what it cannot settle by itself. The answer need not be that the machine can never understand. It is that an unchanged web of linguistic relations underdetermines external reference and communicative use.

This boundary is familiar in debates about the symbol grounding problem and about models trained only on linguistic form. Harnad asked how symbols acquire non-symbolic grounding rather than merely circulating among symbols. Bender and Koller distinguished success at modelling form from evidence of communicative meaning tied to intention and world states. Those arguments are contested, especially as models become multimodal and tool-using. Their load-bearing point remains narrower: more internal relations do not automatically identify the relation that counts as reference.

Comparison fieldMadhyamaka source structureRelational-semantic targetWhat is preservedWhere it breaks
Unit identityA phenomenon lacks self-established natureA representation gains value through contrast and contextIdentity is not exhausted by an isolated atomA vector can still be treated as a stable technical object; Madhyamaka analysis is not limited to representations
DependenceCauses, parts and designation do not bottom out in intrinsic entitiesFeatures depend on corpus, architecture and taskChanging conditions can change usable identitySemantic models often take training events, users and goals as externally given
ConventionOrdinary truth and practice function without ultimate self-establishmentMeanings operate within linguistic and institutional practicesUse can be real without being context-freeConventional validity in Madhyamaka has soteriological and philosophical roles that engineering does not inherit
ReflexivityEmptiness itself is empty rather than a new foundationA relational model can inspect its own provenance and boundariesThe explanatory framework must be auditable tooMetadata about a model is not realisation of emptiness
Comparison boundary

Madhyamaka is a philosophical and soteriological programme concerned with grasping, suffering and the status of phenomena. Relational semantics is a family of accounts and computational methods for linguistic or representational meaning. The legitimate bridge preserves a diagnostic relation: both can expose the error of treating a usable unit as self-established. The bridge fails when a relation graph is declared to be emptiness, enlightenment or ultimate reality.

Optional depth: why “the two truths” is not one settled theory

Indian and Tibetan Madhyamaka traditions disagree about how conventional truth is established, whether ultimate truth is truth in the same sense, and how philosophical assertions function when all views are under analysis. Some readings emphasise semantic and conceptual construction. Others stress a more radical negative dialectic. Still others defend a robust conventional realism without intrinsic existence.

The paper needs only a common constraint: the ultimate is not a second, independently existing layer that replaces conventional phenomena. That is enough to block the inference from “things lack intrinsic nature” to “relations are the ultimate substance”.

Where relational semantics stops

Relational semantics succeeds because context matters. It fails when context is compressed into one privileged snapshot and then mistaken for the thing itself.

“Relational semantics” names several positions, not one formal doctrine. Structural linguistics treats values as differences within a system. Distributional semantics learns representations from patterns of occurrence. Inferential approaches connect meaning to what follows from a claim and what licences it. Use-oriented approaches connect meaning to practices. Modern contextual encoders compute a representation for a token from its surrounding sequence rather than assigning one vector to every occurrence.

These are not trivial achievements. Harris's distributional work made linguistic structure empirically tractable. Word-vector methods captured many syntactic and semantic regularities. Contextual representations showed that the same token occupies different geometric positions in different sentences. Ethayarajh found that upper-layer representations in BERT, ELMo and GPT-2 were substantially context-specific rather than recoverable as a single static vector.

Context sensitivity is evidence against a sealed lexical essence. It is not evidence that every dependency relevant to meaning is inside the model.

A four-vector example you can calculate mentally

Take two idealised semantic axes: finance on the horizontal axis and waterways on the vertical. Let loan = [1, 0] and river = [0, 1]. In “the bank approved the loan”, represent bank = [0.9, 0.1]. In “the bank flooded after rain”, use bank = [0.1, 0.9].

Cosine similarity divides the dot product by the two vector lengths:

cos(a,b) = (a · b) / (||a|| ||b||)

The finance-context bank has similarity about 0.994 with loan and 0.110 with river. Reverse the context and the values reverse. A static vector [0.5, 0.5] sits at about 0.707 from both. Context restores a distinction the static representation erases.

The numerical example assumes two clean, orthogonal axes. Real representation spaces are neither clean nor semantically labelled. Remove that assumption and the exact numbers lose their interpretation. The useful result survives: an occurrence can change relational position without the token changing its spelling.

One token, four semantic trajectories
Illustrative geometry
The word bank moves between finance and waterway regions across four contexts A two-dimensional semantic landscape has a finance basin on the left and a waterway basin on the right. Four occurrences of bank trace different positions based on sentence context. finance basin waterway basin B1B2B3B4 B1 loan approvalB2 central bank speechB3 river-bank propertyB4 flooded bank
Contextualisation moves an occurrence through representation space. The movement is useful evidence of conditional representation, but the axes and basins remain learned from a bounded history.

Four ways a relational model can still reify

First, the graph can be permuted. Rename every internal node consistently and the formal relation structure can remain isomorphic. The system preserves its internal predictions, but the permutation alone does not tell an external user which node concerns medicine, rain or debt. Structure constrains interpretation without always determining reference.

Second, the graph can preserve a bad history. Caliskan, Bryson and Narayanan showed that word embeddings trained on ordinary corpora recovered human-like associations, including problematic racial and gender patterns. The representations were relationally faithful to their data. That faithfulness did not make every recovered relation true, fair or fit for action.

Third, the context boundary can be wrong. A model can condition on every token in a document while missing a policy change, a new authority, a changed population or a purpose constraint. “Long context” is not the same as the right context. The model may be context-sensitive inside the wrong boundary.

Fourth, the metric can become the meaning. Cosine proximity is a geometric relation. A release decision may require causal relevance, legal entitlement, temporal validity or human endorsement. Treating high similarity as semantic sufficiency confuses a convenient measure with the relation the decision actually needs.

Same output, different generator

Two classifiers both mark an application as urgent with confidence 0.86. Classifier A relies on verified housing instability, a factor the current policy names directly. Classifier B relies on postcode, which happened to correlate with urgent cases in the training period. Their outputs are numerically identical. Their semantic warrant is not.

Run a counterfactual intervention. Keep housing evidence fixed and swap the postcode for a matched postcode from another district. Classifier A stays stable. Classifier B flips. Now hold the postcode fixed and remove the housing evidence. Classifier A changes because the policy-relevant ground changed; Classifier B does not.

A purely output-level account calls the original decisions equivalent. A representation-level account may find both systems relational because each uses learned dependencies. The intervention reveals a more useful distinction: one relation tracks the authorised reason, while the other tracks a historical proxy. The same label can be generated by relations with different causal and normative status.

This is why a second model is not automatically independent verification. If both models learned the same proxy from the same corpus, agreement can strengthen the wrong relation. Verification needs a different path: a policy-grounded feature, an external record, a designed intervention or human review capable of breaking the shared dependency.

Thought experiment 3The perfectly relabelled city

Take a detailed city graph. Preserve every road, travel time and adjacency. Secretly permute the place names. A routing engine remains structurally perfect. It can still find the nearest node to every other node. Yet a traveller asking for the hospital may be sent to a stadium because the external anchor has changed.

Add more roads and more precise travel times. The graph becomes richer without repairing the name-to-place link. Relational completeness within a boundary does not guarantee that the boundary is connected to the right practice.

Reification error under context shift
Illustrative synthetic values
A line chart comparing a fixed-label system with a conditioned-label system as context shift increases The fixed-label system's error rises rapidly as shift increases, while a system that revalidates dependencies rises more slowly. Values are illustrative rather than empirical. 01020304050% nonesmallmediumlargesevere dependency shiftdecision error fixed relation snapshotdependency-aware revalidation
Synthetic values show the hypothesis, not a measured result: a frozen relation snapshot should fail faster under shifts than a system that detects changed dependencies, revalidates or abstains.

Thought experiment 4A trillion more relations

Return to the sealed lexicon and increase its corpus a million-fold. Add images whose captions were written by the same community. Add tool traces copied from past users. Performance rises across many tasks. Does the original underdetermination disappear at a specific scale?

It may shrink if new modalities and interactions supply independent anchors. It does not disappear merely because the count of correlations increases. The scaling variable is not “number of relations” but which causal contact, feedback and social practice enter the system. A discontinuity in benchmark performance could belong to the benchmark while the missing dependency remains outside it.

Published evidence and its limit

Contextual models empirically vary representations by context, and corpus-derived embeddings empirically recover social associations. Those findings establish sensitivity to linguistic relations and historical regularities. They do not establish that relation alone constitutes meaning, that every recovered relation is normatively acceptable, or that a system has realised Madhyamaka emptiness.

How the claim changes under pressure
Chart · state
stateDiagram-v2
  [*] --> Claim
  state "The cup that became a paperweight" as Claim
  state "A four-vector example you can<br/>calculate mentally" as Test
  state "Four ways a relational model<br/>can still reify" as Revision
  Claim --> Test: expose mechanism
  Test --> Decision: evidence survives
  Test --> Revision: rival survives
  Revision --> Claim: narrow or rebuild
  Decision --> [*]
The revision loop begins with The cup that became a paperweight and keeps counterexamples inside the reasoning path. Reading use: follow the relation, then return to the surrounding argument for evidence and limits.

The four-dependence audit

The engineering consequence is not to delete labels. It is to attach every consequential label to the dependencies that make it valid, then test the label under interventions on those dependencies.

The proposed instrument is the 4D Dependence Audit. It converts a philosophical warning into four operational questions. The names are chosen for memory rather than textual fidelity.

Drivers are the causal and historical conditions that produced the representation: training data, sensors, sampling, policy versions, incentives and feedback. Decomposition is the choice of parts and system boundary: tokens, features, documents, people, components and aggregation rules. Differences are the contrasts that give a label discriminative force: classes, neighbours, thresholds, baselines and counterfactual alternatives. Designation is the practice that names and uses the label: purpose, authorised user, legal rule, workflow and action consequence.

Anatomy of a configured decision label
Worked scenario
A layered cutaway of the priority-review label The centre contains a model proposal. Four surrounding layers show designation, differences, decomposition and drivers. An authority ring separates the proposal from an actual queue action. model proposal designation differences decomposition drivers authority kernel policy version valid?evidence entitled?action reversible? queue action
A model proposal is only the centre of the configured meaning. Drivers, decomposition, differences and designation surround it, while deterministic authority decides whether the proposal may become an action.

From intuition to a testable score

Let a label's current meaning be written as:

M(x | c) = F(Ddrivers, Ddecomposition, Ddifferences, Ddesignation)

Here x is the item being represented and c is the declared operating context. The equation does not claim that meaning is numerically reducible. It forces the system owner to name the inputs on which a semantic judgement depends.

For each dimension, score sensitivity s from 0 to 4 and evidence coverage e from 0 to 4. Sensitivity asks how much a plausible change could alter the action. Coverage asks how well the system can detect, reproduce and test that dependency. With equal weights, a simple triage score is:

R = Σ wi · si · (4 − ei) / 16

If designation has sensitivity 4 and coverage 0, it contributes the maximum risk. If decomposition has sensitivity 2 and coverage 3, it contributes little. Suppose the four pairs are (4,1), (2,3), (3,2) and (4,0). With equal weights, R is 0.56. That is a high triage result: the label should not be reused without revalidation or an abstention gate.

The score assumes ordinal ratings and chosen weights are decision-useful. They are not probabilities. Remove that assumption and the audit still works as a structured comparison: the highest sensitivity with the weakest evidence identifies the first intervention to run.

The 4D Dependence Audit
Decision instrument
DimensionAskMinimum evidenceInterventionRelease rule
DriversWhich histories, data, sensors and incentives produced this relation?Versioned provenance, sampling record, temporal cutoffSwap data source, policy version or feedback channelRevalidate when a high-sensitivity driver changes
DecompositionWhich parts and boundary make this the candidate object?Feature schema, aggregation logic, candidate boundaryAdd, remove or regroup parts while holding the task fixedAbstain if the deployed boundary differs from the tested one
DifferencesAgainst which alternatives does the label discriminate?Reference class, thresholds, nearest alternativesChange class balance, baseline or counterfactual neighbourReject labels whose meaning flips under plausible contrast changes
DesignationWho names the label, for what purpose and authorised action?Purpose, policy, user role, action contract, expiryHold the score fixed and change the rule or intended useNever carry a label into a new purpose without explicit remapping
The audit turns “meaning depends on context” into four change tests. A label passes only for a declared operating context and a stated action, not once and for all.

A realistic configured-system example

Consider a synthetic benefit-assistance system. Its intent is to help caseworkers identify applications needing rapid human review. Identity is verified separately. World state contains current application facts and queue capacity. Permitted context includes authorised income documents, housing status and the current policy version. A language model may explain evidence, but a calibrated model proposes a priority band. A deterministic authority kernel maps the proposal to a typed queue action.

The original label priority review meant “place within the top 10 per cent of the queue under Policy P1 for same-day human review”. A later team reuses it under Policy P2 to mean “review within three days if housing instability is present”. The model score remains unchanged.

The 4D audit finds low decomposition shift, moderate driver shift, high difference shift and maximum designation shift. The right response is not to debate whether the score is “really relational”. It is to block release until the label is remapped, thresholds are recalibrated and the action contract records the new policy. Semantic governance belongs at the transition from proposal to authorised action.

Executable lab: score reification risk

Adjust sensitivity and evidence coverage for each dependency. The tool recommends whether to release, revalidate or abstain.

Dependency
Sensitivity to change: 0 to 4
Evidence coverage: 0 to 4
Driversdata, history, incentives
3
2
Decompositionparts and boundary
2
3
Differencesclasses and thresholds
3
2
Designationpurpose, rule and action
4
1

High reification risk for “priority review”

0.41

Gate release. Intervene first on designation, then rerun calibration under the current purpose and policy.

Largest unresolved contribution: designation.

The lab tests whether a label has high decision sensitivity where evidence is weak. It encodes four assumptions: the operating context can be declared, dependencies can be separately discussed, ratings are ordinally meaningful, and higher sensitivity with lower evidence justifies stronger control.

A low result permits scoped reuse only inside the declared context, with an expiry and monitoring rule. A high result permits no adverse inference about the person or object; it means the system owner lacks enough evidence to treat the label as portable. If an intervention leaves outcomes stable, confidence in that specific invariance rises. If outcomes change, the label must be recalibrated, remapped or withdrawn.

The tool cannot establish metaphysical emptiness, genuine understanding, fairness, reference or consciousness. It can expose where a decision has mistaken a conditioned representation for a context-free fact.

How the audit enters an operating system

Begin before model evaluation, not after a failure. The product owner writes the exact action sentence: “This label permits this actor to take this action for this purpose until this condition expires.” That sentence fixes the designation to be audited. Without it, reviewers will discuss abstract model quality while imagining different consequences.

Next, the data and engineering owners construct the driver and decomposition records. The driver record versions training sources, temporal cutoffs, sampling choices, feedback channels and policy inputs. The decomposition record names the candidate system and its parts: which documents count, how records are joined, which population is represented, and whether the model, retrieval layer, rules and human operator are inside or outside the assessed boundary.

The domain owner then defines differences. What are the nearest alternative labels? Which threshold separates them? Which reference population makes “high”, “similar” or “urgent” meaningful? The team designs at least one intervention that could cause a justified label to change and one that should leave it invariant. A test suite that contains only invariance cases rewards semantic rigidity.

Finally, the authority layer turns audit results into release behaviour. A changed high-sensitivity dependency can trigger one of four typed responses: continue within scope, require review, revalidate, or abstain. The response and its evidence become a decision receipt. After execution, readback records whether the intended queue placement, message or transaction occurred. This separation stops a plausible label from being treated as a verified effect.

Do not average away a red dimension. A well-documented data history does not compensate for an unauthorised purpose. Excellent policy documentation does not compensate for a changed population boundary. The total score supports triage, but hard gates belong to individual dependencies whose failure can cause irreversible harm.

JavaScript · core scoring logic
/** Ratings are ordinal, 0..4. Weights must sum to 1. */
function reificationRisk(dimensions, weights) {
  const terms = Object.keys(dimensions).map((name) => {
    const { sensitivity, evidence } = dimensions[name];
    if (![sensitivity, evidence].every(Number.isFinite)) {
      throw new TypeError(`Missing numeric rating for ${name}`);
    }
    if (sensitivity < 0 || sensitivity > 4 || evidence < 0 || evidence > 4) {
      throw new RangeError(`Ratings for ${name} must be between 0 and 4`);
    }
    return weights[name] * sensitivity * (4 - evidence) / 16;
  });
  return terms.reduce((sum, term) => sum + term, 0);
}
What a low score means

A low score is not a declaration that the label has intrinsic meaning. It says that, within the declared operating boundary, plausible changes are either low-impact or well observed. The result is conditional and expires with its evidence. A system should preserve the prior audit so that a future reviewer can distinguish “nothing changed” from “we stopped looking”.

How to apply the audit without the interactive page

Write the label and exact action at the top of a worksheet. For each dimension, list the current evidence, one plausible intervention and the owner responsible for revalidation. Score sensitivity and coverage independently before discussing the total. This reduces the temptation to let a strong area compensate rhetorically for an untested high-risk area.

Set an explicit release rule. For example: any dimension with sensitivity 4 and evidence below 2 triggers abstention; any policy or purpose change invalidates prior designation evidence; any boundary change requires a fresh decomposition test. Version the completed worksheet with the model, policy and action contract.

Keep proposal, authority and outcome separate
System-boundary view
A system boundary separating model proposal from authority, action and verified outcome Intent and permitted context enter an untrusted reasoning zone. The model emits a proposal and evidence receipt. A deterministic authority boundary validates policy and emits a typed action. Readback verifies the outcome. probabilistic proposal zone permitted contextevidence and state model proposallabel plus rationale decision receipt authority boundary policy decisionallow, deny or abstain typed action verified outcomereadback plus effect receipt
A semantic label should remain a model proposal until an authority kernel checks purpose, policy, entitlement and action. Readback verifies what actually happened rather than treating the proposed meaning as the outcome.

A testable research hypothesis

Open hypothesis

Systems that version all four dependencies and gate action when a high-sensitivity dependency changes will be better calibrated under semantic shift than systems that retain only model weights, embeddings and ordinary feature-drift monitors.

The smallest experiment uses synthetic tasks. Generate a label under one configuration, then independently shift its data-generating history, feature boundary, contrast class and action rule. Compare two systems: a fixed relational classifier, and the same classifier wrapped with a 4D manifest, targeted interventions and abstention. Measure decision error, calibration, unsafe action rate, abstention cost and revalidation burden.

  • Strengthening result: the wrapped system lowers unsafe actions under matched in-context performance, especially when ordinary feature drift is small.
  • Weakening result: the audit adds cost without improving calibration or catching failures beyond existing provenance and policy controls.
  • Rival explanation: any gain may come from better metadata and change management, not from the Madhyamaka comparison.
  • Do not apply: the full gate is excessive for low-consequence labels whose purpose, boundary and data source are deliberately fixed.
  • Smallest useful implementation: a versioned dependency manifest, one intervention test per high-sensitivity dimension, an expiry and an abstention rule.
The adversarial path of a stable but wrong relation
Failure-path visual
A winding path from biased history to a stable but harmful decision A coral path flows through biased corpus, embedding relation, stable benchmark and automated action. Four audit checkpoints could interrupt the path, but each is shown as missed. historicbias learnedrelation stablebenchmark portablelabel adverseaction D1drivers missed D2boundary missed D3contrast missed D4purpose missed
A relation can be reproducible, predictive and harmful. The audit creates four independent interruption points before historical association becomes authorised action.
Strongest boundary

The audit can be implemented without accepting Madhyamaka. Provenance engineering, causal testing and policy governance already motivate many of its controls. Madhyamaka contributes a sharper error model: after abandoning intrinsic labels, do not reintroduce intrinsic relations. The engineering value is diagnostic, not a proof that Buddhist metaphysics has been encoded.

The evidence conversation
Chart · sequence
sequenceDiagram
  participant Q as Question
  participant M as Mechanism
  participant E as Evidence
  participant D as Decision
  Q->>M: When the net moves
  M->>E: The cup that became a paperweight
  E-->>M: compare rival explanations
  E->>D: Govern the conditions under which the relation works
  D-->>Q: revise scope or act
Question, mechanism, evidence and decision exchange the burdens developed in Madhyamaka and relational semantics. Reading use: follow the relation, then return to the surrounding argument for evidence and limits.

Govern the conditions under which the relation works

Stop asking whether a representation is relational. Ask which dependencies make it valid now, which intervention could change its use, and who has authority to act on it.

The opening system failed because it preserved a score while losing the configuration that made the score actionable. A conventional machine-learning review might check data drift, predictive performance and reproducibility. Those checks matter. They can all pass while the purpose, contrast class or authorised action has changed.

A consequential label should therefore ship with a dependency manifest, rather than only a model card. The manifest names its drivers, decomposition, differences and designation. Each high-sensitivity dependency receives an intervention test, a change trigger, an owner and an expiry. The label remains a proposal until authority validates the current policy and permitted context. A verified outcome is recorded separately from the proposal.

For philosophy, the decision is equally concrete. Do not translate Madhyamaka as “everything is relations”. That phrase sounds anti-essentialist while quietly granting essence to the network. The more faithful comparison is methodological: examine what a phenomenon depends on, then examine whether the supposed dependencies have been exempted from the same analysis.

Reuse a semantic label only when its load-bearing dependencies are declared, current and tested under plausible change. Otherwise remap it, revalidate it or abstain.

This does not make the world unusable. It makes use more precise. A chariot can carry a traveller without possessing a final chariot-core. A word can guide action without containing an isolated meaning atom. A model can support a decision without its label becoming a context-free fact.

In a review meeting, this changes the first question. Instead of asking whether the model “understands” the label, ask which dependency was last tested. Instead of asking whether two systems agree, ask whether they depend on independent evidence. Instead of treating a stable score as continuity, ask whether the action sentence, reference class and temporal entitlement are unchanged. These questions turn an abstract anti-essentialism into release criteria that can be owned, versioned and challenged.

The middle move is neither to worship the node nor to worship the edge. It is to govern the conditions under which the relation works.

Glossary

Dependent arising
The claim that phenomena arise and function through causes and conditions rather than through self-established nature.
Designation
The conceptual and linguistic practice through which something is identified for a purpose. In this paper, designation includes the policy and action attached to a label.
Edge reification
The paper's term for treating a fixed relation graph as intrinsically valid after rejecting intrinsic properties in isolated nodes.
Relational semantics
A broad label here for approaches in which semantic value depends on contrast, distribution, inference, context or use. It is not used as the name of one formal semantic calculus.
Svabhāva
Intrinsic nature, own-nature or self-established existence. Translation and interpretation vary across scholarship and Madhyamaka traditions.
Two truths
The distinction between conventional and ultimate truth in Buddhist philosophy. Madhyamaka interpretations disagree about its exact formulation and implications.

References

  1. Nāgārjuna. Nāgārjuna's Middle Way: Mūlamadhyamakakārikā. Translated by Mark Siderits and Shōryū Katsura. Wisdom Publications, 2013. Publisher page. Primary text in translation.
  2. Garfield, Jay L. The Fundamental Wisdom of the Middle Way: Nāgārjuna's Mūlamadhyamakakārikā. Oxford University Press, 1995. Publisher page. Translation and philosophical commentary.
  3. Westerhoff, Jan. Nāgārjuna's Madhyamaka: A Philosophical Introduction. Oxford University Press, 2009. Publisher page. Authoritative secondary interpretation.
  4. Westerhoff, Jan. “Nāgārjuna.” Stanford Encyclopedia of Philosophy. Entry. Dependence, svabhāva and interpretation.
  5. Thakchoe, Sonam. “The Theory of Two Truths in India.” Stanford Encyclopedia of Philosophy. Entry. Comparative account of conventional and ultimate truth.
  6. Garfield, Jay L. “Dependent Arising and the Emptiness of Emptiness: Why Did Nāgārjuna Start with Causation?” Philosophy East and West 44(2), 1994. Record. Influential interpretation; not uncontested.
  7. Jones, Douglas T. “Candrakīrti on the Use and Misuse of the Chariot Argument.” Journal of Indian Philosophy, 2023. Article. Recent scholarship on the argument's soteriological use.
  8. Harris, Zellig S. “Distributional Structure.” WORD 10(2-3), 1954, 146-162. DOI. Foundational distributional analysis.
  9. Mikolov, Tomas, Ilya Sutskever, Kai Chen, Greg Corrado and Jeffrey Dean. “Distributed Representations of Words and Phrases and their Compositionality.” Advances in Neural Information Processing Systems, 2013. Paper. Empirical word-vector method and stated limitations.
  10. Ethayarajh, Kawin. “How Contextual are Contextualized Word Representations?” EMNLP-IJCNLP, 2019. ACL Anthology. Published analysis of contextual representation geometry.
  11. Bender, Emily M. and Alexander Koller. “Climbing towards NLU: On Meaning, Form, and Understanding in the Age of Data.” ACL, 2020. ACL Anthology. Contested argument distinguishing linguistic form from communicative meaning.
  12. Harnad, Stevan. “The Symbol Grounding Problem.” Physica D 42, 1990, 335-346. DOI. Foundational statement of the grounding problem.
  13. Caliskan, Aylin, Joanna J. Bryson and Arvind Narayanan. “Semantics derived automatically from language corpora contain human-like biases.” Science 356(6334), 2017, 183-186. DOI. Published evidence that distributional relations can preserve historical bias.
  14. Wittgenstein, Ludwig. Philosophical Investigations, 4th edition. Wiley-Blackwell, 2009. Publisher page. Primary philosophical source on use, rules and language games.