Order Is Not Control: Driven-Dissipative Response Laws Across Artificial and Biological Systems
About
AI alignment, interpretability, steering, and neural perturbation studies identify order-inducing objects. We argue that order is not control. Control requires a receiver-gated response law: a denominator-indexed operator mapping material state, action/drive, bath, and receiver state to response displacement, sinks, effort, and basin projection. We identify it across biological, LLM, adapter, and stochastic-operator panels. The laws are local: an intervention can be admitted, saturated, sign-changing, leaky, or overdriven depending on medium, bath, receiver state, action port, and comparator. Control is assigned when finite effort moves a target or outcome-readout class under the same denominator while damage, null/evasive, invalid format, overdrive, and unnecessary effort stay bounded. Mouse ALM, C. elegans, and zebrafish panels provide physical response-operator evidence while excluding coordinate identity and controller conclusions. LLM panels show generated-output response laws: across four material conditions, response vectors are predictable at 72.8-73.7% component-sign accuracy, rising to 84.3-84.8% on nonzero components; held-out observers predict system-effect and target/oracle families at 93.6% and 91.7% accuracy. Constitution-conditioned adapters reshape susceptibility as prepared media, and stochastic-operator panels separate measured opportunity from deployable action policies. This gives a driven-dissipative response-system account at the mesoscopic control level: drives act through prepared media, baths, and receivers, producing admitted movement, impedance, sinks, or overdrive. The evidence supports local admitted control and measurable stochastic response operators, while leaving deployable pre-generation control, hidden/logit causal sufficiency, biological-to-LLM coordinate identity, and literal thermodynamic quantities outside scope.
Related benchmarks
| Task | Dataset | Result | Rank | |
|---|---|---|---|---|
| Physical response-operator prediction | ALM Biological perturbation response ports (held-out rows) | Sign Accuracy71.5969 | 2 | |
| Admission Control | Admission boundary Action-admission panels Stochastic response-operator (rows blocks) | Opportunity Positive Blocks253 | 1 | |
| Directional response prediction | Predictive response-vector law Four LLM material states (samples) | Component-Sign Accuracy72.77 | 1 | |
| Generated-output admittance | Generated-output (Frozen completions) | Boundary Target Score1 | 1 | |
| Local admitted control | Local Admitted Control Matched panels | Clean Composite Score86.9 | 1 | |
| Physical response-operator prediction | worm Biological perturbation response ports | Sign Accuracy59.6825 | 1 | |
| Physical response-operator prediction | cross-bio gate phase material rows | Gate Supported4 | 1 | |
| Prepared-medium susceptibility | Prepared medium Frozen base adapters (response cells) | Standard Editorial Principle Condition Delta0.1406 | 1 | |
| System-effect prediction | Held-out observer system-effect Non-endpoint features (source rows evals) | Accuracy93.57 | 1 | |
| Target/oracle prediction | Observer target oracle Non-endpoint features (Held-out evals) | Accuracy91.74 | 1 |