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Add Phys.org May 2026 source intake for bees, biocoatings, THz, and diamond membranes
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# Phys.org Intake — Bees, Biocoatings, THz Metasurface, Diamond Membranes
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## Status
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**Claim state:** `SOURCE_COLLECTION`
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**Intake date:** 2026-05-23
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This note records four DOI-bearing Phys.org / primary-paper source leads and routes them into the Research Stack without promoting any project claim beyond source-supported scope.
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These are **source anchors**, not proof receipts. Use them for bridge-building, equation stress tests, and literature expansion only after domain-specific Warden checks.
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---
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## Consensus-ready DOI block
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```text
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10.1098/rsbl.2025.0849
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10.1021/acsami.6c05652
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10.1117/1.ap.8.2.026011
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10.1126/sciadv.aea8318
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```
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---
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## Source table
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| # | DOI | Title | Year | Source link | Project routing |
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|---:|---|---|---:|---|---|
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| 1 | `10.1098/rsbl.2025.0849` | *Threading the needle: spatial constraints sharpen visual sensitivity in honeybees* | 2026 | https://phys.org/news/2026-05-honeybees-reveal-weber-law-flight.html | Weber-law / relative-threshold navigation; low-cost perception; risk-gated visual effort; useful for FAMM routing, goxel aperture-choice analogies, and cognitive-load threshold models. |
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| 2 | `10.1021/acsami.6c05652` | *Biocoatings with Enhanced Bacterial Viability via Coagulant Dipping and Wet Sintering by Immersion* | 2026 | https://phys.org/news/2026-05-permanently-coating-method-wastewater-treatment.html | Wet bio-interface carriers; scaffold/capture material; living coating viability; sympathetic material bind / reclamation carrier layer. |
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| 3 | `10.1117/1.ap.8.2.026011` | *Quantum metasurface-based photoelectric tunable-step terahertz detector* | 2026 | https://phys.org/news/2026-05-quantum-metasurface-boosts-terahertz-sensitivity.html | THz metasurface detector; subwavelength field concentration; planar witness geometry; useful for optical/THz witness telemetry, metasurface packet sensing, and PIST-like detector surfaces. |
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| 4 | `10.1126/sciadv.aea8318` | *Uncovering piezoelectric effect in polycrystalline diamond membranes* | 2026 | https://phys.org/news/2026-05-piezoelectric-effect-diamond-membranes-century.html | Grain-boundary polarization; deformation-to-voltage membrane witness; mechanical scar/strain receipt; diamond MEMS / self-powered sensor analog. |
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---
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## Project fit notes
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### 1. Honeybee Weber-law flight choice
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**Observed source claim:** honeybees choose between apertures using relative differences, with behavior modulated by absolute risk. Small apertures sharpen discrimination; large safe apertures reduce careful comparison.
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**Research Stack fold:** this is a clean biological example of a bounded-perception gate:
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```text
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decision_effort ∝ risk(aperture_constraint) × relative_difference_signal
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```
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Project use:
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- FAMM routing: near-collision apertures behave like high-scar route gates.
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- Goxel boundary logic: an aperture is a local admissibility boundary, not merely an open cell.
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- Cognitive load model: precision is only carried until the residual is below the boundary condition.
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- Robotic / drone navigation: relative-threshold perception can reduce compute where absolute precision is unnecessary.
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**Warden boundary:** do not claim bees prove project math. Use the study as a biological precedent for relative thresholding under spatial constraint.
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---
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### 2. Permanently wet bacterial biocoatings
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**Observed source claim:** wet sintering by immersion keeps bacteria hydrated during coating formation, greatly increasing survival compared with drying-based coating processes; porous coatings preserve activity and permeability.
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**Research Stack fold:** this fits the sympathetic material bind / reclamation interface lane:
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```text
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carrier_viability = f(hydration_continuity, porosity, nutrient_flux, waste_flux)
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```
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Project use:
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- Capture/scaffold materials for contaminant-bearing packets.
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- Bioactive modular panels for wastewater and reclamation workflows.
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- Carrier-layer design where the processing path preserves the active agent instead of destroying it.
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- A wet boundary condition example: the manufacturing process is part of the admissibility gate.
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**Warden boundary:** do not generalize to arbitrary contaminants or field conditions without microbial, chemical, and flow-rate tests.
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---
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### 3. Quantum metasurface THz detector
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**Observed source claim:** a quantum metasurface PETS detector uses in-plane photoelectric effect and metasurface field concentration to boost THz responsivity, with many gap-scale detection elements contributing to a stronger signal.
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**Research Stack fold:** this is a concrete metasurface witness geometry:
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```text
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I_signal = Σ_i η_i · E_gap,i^2 · G_step,i
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```
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where each gap acts as a local detector/witness packet and the metasurface concentrates the incoming field into useful detection regions.
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Project use:
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- THz witness channels for material-interface sensing.
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- PIST / ManifoldBlit analogy: a planar surface performs a lawful field transform and emits a receipt-like electrical response.
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- Optical telemetry: many small detector gaps aggregate into a stronger witness signal, analogous to packet lanes.
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- Metasurface control stack: bridge to structured-light / chirality / polarization source cluster.
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**Warden boundary:** current reported device is cryogenic/proof-of-concept; do not treat it as room-temperature commodity sensor evidence.
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---
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### 4. Piezoelectric diamond membranes
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**Observed source claim:** ultrathin flexible polycrystalline diamond membranes can show stable piezoelectric response under bending, attributed to asymmetric grain-boundary polarization.
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**Research Stack fold:** this is a mechanical scar-to-voltage witness:
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```text
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V_membrane ≈ Φ_grain_boundary(asymmetry, strain, thickness, cycling_state)
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```
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Project use:
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- Strain receipt / mechanical witness layers.
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- Diamond MEMS and self-powered deformation sensors.
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- Anti-good-enough mechanical accountability: load/deformation can emit a physical receipt.
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- Grain boundaries as lawful residual carriers rather than mere defects.
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**Warden boundary:** do not claim bulk single-crystal diamond is piezoelectric. The source is specifically about ultrathin polycrystalline membranes and grain-boundary asymmetry.
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---
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## Cross-index routing
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| Stack lane | Relevant sources | Why |
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|---|---|---|
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| FAMM / route gating | Honeybee Weber-law paper | Relative choice under constrained apertures; risk-gated precision. |
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| Goxel / aperture admissibility | Honeybee Weber-law paper | Apertures behave like local boundary eigenconditions. |
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| Sympathetic material bind | Wet biocoating paper | Scaffold survival and porous flux define whether the carrier remains active. |
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| Reclamation / wastewater | Wet biocoating paper | Modular bioactive treatment surfaces; capture + active processing. |
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| Optical / THz witness telemetry | THz metasurface paper | Surface concentrates field into local witness gaps and sums response. |
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| PIST / ManifoldBlit | THz metasurface paper | Planar lawful transform from incoming field to receipt signal. |
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| Mechanical witness / scar receipts | Diamond membrane paper | Deformation becomes measurable voltage via grain-boundary polarization. |
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| Anti-good-enough mechanical accountability | Diamond membrane paper | Load/deformation can be audited by a physical sensor layer. |
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---
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## Warden rules
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```text
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Allowed:
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- Use these papers as source anchors for literature search and project routing.
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- Extract equations only at the level supported by the paper domain.
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- Treat all analogies as analogy-bounded until a bridge theorem, measurement, or benchmark exists.
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- Use DOI entries for Consensus / Zotero / provenance expansion.
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Blocked:
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- Do not promote project claims solely because a paper rhymes with the model.
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- Do not mix biological, microbial, THz, and diamond membrane results as one universal proof.
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- Do not omit operating conditions: aperture scale, wet immersion, cryogenic THz test, ultrathin polycrystalline membrane.
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- Do not treat news article summaries as substitutes for reading the primary papers.
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```
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---
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## Next fold targets
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1. Add all four DOIs to `Consensus_DOI_Collection.md` during the next source-spine refresh.
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2. Create lane-specific source notes if any source becomes an equation anchor.
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3. For each promoted source, add a Warden note separating source facts from project analogy.
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