mirror of
https://github.com/allaunthefox/Research-Stack.git
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493 lines
26 KiB
YAML
493 lines
26 KiB
YAML
# Research Stack CFF-style provenance database
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#
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# Purpose:
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# Preserve source provenance for external material imported into Research Stack
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# doctrine, especially Warden/GCL surfaces. This is intentionally conservative:
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# public web articles may seed design patterns or analogy surfaces, but they do
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# not promote scientific, biological, neurological, or formal claims without
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# independent receipts.
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#
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# Warden policy:
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# - public web article => HOLD unless independently reviewed
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# - public science synthesis => HOLD / analogy-bounded unless backed by native-domain receipts
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# - neuroscience / biology language => analogy-bounded unless peer-reviewed
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# - biology / biomolecular scaffold language => analogy-bounded unless claimed inside its native domain
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# - medical / diet / health claims => out of GCL engineering scope unless separately reviewed in medical context
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# - no adversary => no earned confidence
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# - no surviving phi => no promotion
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# - peer-reviewed materials / biomolecular paper => external-source anchor only; does not prove GCL operators
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cff-version: "1.2.0"
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message: "Research Stack source provenance records for GCL/Warden imports."
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title: "Research Stack CFF Provenance Database"
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version: "0.1.0"
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date-released: "2026-05-02"
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references:
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- type: webpage
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title: "Building More Truthful and Stable AI with Adversarial Convergence"
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authors:
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- name: "socal21st.oc"
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url: "https://medium.com/@socal21st.oc/building-more-truthful-and-stable-ai-with-adversarial-convergence-66ece2dff9f6"
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date-accessed: "2026-05-02"
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notes: >-
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Source record for the Adversarial-Convergence-GCL Warden pass. Imported
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only as a public-web design-pattern source for thesis/contra/surviving-phi
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synthesis review. Not peer-reviewed; not a formal proof of AI truthfulness
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or stability.
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- type: webpage
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title: "The Neurological Basis of Adversarial Convergence and How Neuroscience Can Inform AI Design"
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authors:
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- name: "socal21st.oc"
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url: "https://medium.com/@socal21st.oc/the-neurological-basis-of-adversarial-convergence-and-how-neuroscience-can-inform-ai-design-4c1092b60cae"
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date-accessed: "2026-05-02"
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notes: >-
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Source record for analogy-bounded neuroscience framing around adversarial
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convergence. Imported only as a reference surface for cognitive-design
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inspiration and Warden pressure-testing language. Not peer-reviewed; not a
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biological proof of GCL, Warden, or any literal neuroscience implementation.
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- type: article
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title: "Ultrathin, Stretchable, and 3D-Printable Complementary Nanotubes-Polymer Composites for Multimodal Radiation Shielding in Extreme Environments"
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authors:
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- name: "Flandy"
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- name: "Kun Kim"
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- name: "Jaehyoung Ko"
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- name: "Daeun Kim"
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- name: "Daekwon Lee"
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- name: "Heesuk Rho"
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- name: "Sang Seok Lee"
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- name: "Dong Su Lee"
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- name: "Se Gyu Jang"
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- name: "Seokhoon Ahn"
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- name: "Seung-Yeol Jeon"
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- name: "Dae-Young Jeon"
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- name: "Yongho Joo"
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journal: "Advanced Materials"
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year: 2026
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volume: "38"
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doi: "10.1002/adma.202513805"
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url: "https://advanced.onlinelibrary.wiley.com/doi/10.1002/adma.202513805"
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date-accessed: "2026-05-02"
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notes: >-
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Peer-reviewed external-source anchor for geometry-programmable multimodal
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energy attenuation. Used to support the Phonon Path Bezier Adapter as a
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design precedent for material composition plus internal architecture
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changing energy residence, scattering, attenuation, and survivability. It
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does not prove phonon routing, GCL compression, or any Bezier-derived
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physical transport operator.
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- type: article
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title: "Engineering solvent resistance in semiconducting polymer films through UV-induced polydiacetylene crosslinking"
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authors:
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- name: "Amit K. Sur"
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- name: "Audithya Nyayachavadi"
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- name: "Piumi Kulatunga"
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- name: "Nien-Jung Li"
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- name: "Yu-Cheng Chiu"
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- name: "Simon Rondeau-Gagné"
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journal: "RSC Advances"
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year: 2025
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volume: "15"
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pages: "24142-24149"
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doi: "10.1039/D5RA02367J"
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url: "https://pubs.rsc.org/en/content/articlelanding/2025/ra/d5ra02367j"
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date-accessed: "2026-05-02"
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notes: >-
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Peer-reviewed external-source anchor for crosslink lock-in, solvent
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resistance, morphology preservation, and multilayer survivability in the
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Phonon Path Bezier Adapter. It does not prove GCL, phonon routing, or
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Bezier transport.
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- type: article
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title: "Plasmonic Nanomachines: Creating Local Potential Gradients and Motions"
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authors:
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- name: "Yoonhee Kim"
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- name: "Soohyun Ji"
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- name: "Donghyun Choi"
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- name: "Jwa-Min Nam"
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journal: "Advanced Materials"
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year: 2026
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doi: "10.1002/adma.73247"
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url: "https://doi.org/10.1002/adma.73247"
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date-accessed: "2026-05-02"
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notes: >-
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Peer-reviewed open-access Perspective used as an external-source anchor
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for optical, thermal, and chemical local potential gradients, symmetry
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breaking, nanoscale motion, and Brownian/stochastic Warden constraints.
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It does not prove GCL, Bezier transport, or phonon routing.
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- type: article
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title: "Valency-Controlled Framework Nucleic Acid Signal Amplifiers"
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authors:
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- name: "Qi Liu"
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- name: "Zhilei Ge"
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- name: "Xiuhai Mao"
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- name: "Guobao Zhou"
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- name: "Xiaolei Zuo"
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- name: "Juwen Shen"
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- name: "Jiye Shi"
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- name: "Jiang Li"
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- name: "Lihua Wang"
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- name: "Xiaoqing Chen"
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- name: "Chunhai Fan"
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journal: "Angewandte Chemie International Edition"
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year: 2018
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volume: "57"
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issue: "24"
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pages: "7131-7135"
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doi: "10.1002/anie.201802701"
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url: "https://doi.org/10.1002/anie.201802701"
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date-accessed: "2026-05-02"
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notes: >-
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Peer-reviewed external-source anchor for framework nucleic acid scaffold
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valency, placement-controlled signal amplification, purified building
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blocks, and staircase-like discrete amplification behavior. It does not
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prove GCL, geometric compression, phonon routing, or Bezier transport.
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- type: article
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title: "Mitochondria are more than powerhouses—they’re the motherboard of the cell"
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authors:
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- name: "Martin Picard"
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journal: "Scientific American"
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year: 2025
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volume: "332"
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issue: "6"
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pages: "50"
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doi: "10.1038/scientificamerican062025-QhEeouFRPCYEr2tKQNWqM"
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url: "https://www.scientificamerican.com/article/mitochondria-are-more-than-powerhouses-theyre-the-motherboard-of-the-cell/"
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date-accessed: "2026-05-02"
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notes: >-
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Public science synthesis source used as an analogy-bounded architecture
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anchor for mitochondrial collectives, mitochondrial sociality, fusion,
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fission, nanotunnels, specialization, and mitochondrial information
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processing systems. It does not prove GCL, autopoiesis, compression,
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health claims, or any engineering operator.
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x-research-stack-provenance:
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schema_version: "0.1.0"
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entries:
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- id: "medium-socal21st-adversarial-convergence-truthful-stable-ai"
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type: "online_article"
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title: "Building More Truthful and Stable AI with Adversarial Convergence"
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source_url: "https://medium.com/@socal21st.oc/building-more-truthful-and-stable-ai-with-adversarial-convergence-66ece2dff9f6"
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source_account: "socal21st.oc"
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accessed: "2026-05-02"
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source_class: "public_web_article"
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peer_reviewed: false
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claim_state: "HOLD"
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authority_scope: "design_pattern_only"
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imported_as:
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- "Adversarial-Convergence-GCL Warden pass"
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- "thesis / contra-surface / surviving-phi / synthesis audit pattern"
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- "LLM operator-review pressure test"
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allowed_use: >-
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Use as a conceptual source for dialectical Warden pressure testing of
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GCL claims, DeepSeek review prompts, and LLM-generated compression
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operators.
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blocked_use: >-
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Do not treat as proof of model truthfulness, formal verification,
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empirical convergence, or guaranteed AI stability.
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delta_phi_gamma_lambda_binding:
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delta: "claim residue introduced or removed by adversarial pressure"
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phi: "claim/invariant/concession that survives both positive and contra readings"
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gamma: "counterargument pressure, evidence conflict, and decision stakes"
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lambda: "analysis scale: sentence, claim, document, module, theory, corpus"
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warden_notes:
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- "No adversary, no earned confidence."
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- "No surviving phi, no promotion."
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- "Requires independent receipts before promotion beyond design-pattern status."
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- id: "medium-socal21st-neurological-basis-adversarial-convergence"
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type: "online_article"
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title: "The Neurological Basis of Adversarial Convergence and How Neuroscience Can Inform AI Design"
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source_url: "https://medium.com/@socal21st.oc/the-neurological-basis-of-adversarial-convergence-and-how-neuroscience-can-inform-ai-design-4c1092b60cae"
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source_account: "socal21st.oc"
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accessed: "2026-05-02"
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source_class: "public_web_article"
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peer_reviewed: false
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claim_state: "HOLD"
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authority_scope: "analogy_bound_neuroscience_reference_surface"
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imported_as:
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- "adversarial-convergence neuroscience analogy"
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- "source receipt requiring biological-overclaim guard"
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- "cognitive-design inspiration surface"
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allowed_use: >-
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Use only as analogy-bounded reference material for Warden interrogation
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loops, adversarial pressure, and cognitive design inspiration.
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blocked_use: >-
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Do not treat as biological proof of GCL, proof of adversarial convergence,
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proof of model stability, or evidence that Research Stack literally
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implements neuroscience.
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warden_notes:
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- "Any biological or neurological language derived from this source requires a biological-overclaim guard."
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- "Requires peer-reviewed external receipts before any empirical neuroscience claim promotion."
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- "Keep imported language structural: analogy source, not biological authority."
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- id: "flandy-2026-complementary-nanotubes-polymer-multimodal-shielding"
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type: "peer_reviewed_article"
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title: "Ultrathin, Stretchable, and 3D-Printable Complementary Nanotubes-Polymer Composites for Multimodal Radiation Shielding in Extreme Environments"
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source_url: "https://advanced.onlinelibrary.wiley.com/doi/10.1002/adma.202513805"
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doi: "10.1002/adma.202513805"
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journal: "Advanced Materials"
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year: 2026
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volume: "38"
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article_id: "e13805"
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accessed: "2026-05-02"
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source_class: "peer_reviewed_materials_science_article"
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peer_reviewed: true
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claim_state: "HOLD"
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authority_scope: "external_source_anchor_for_geometry_programmable_energy_response"
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authors:
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- "Flandy"
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- "Kun Kim"
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- "Jaehyoung Ko"
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- "Daeun Kim"
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- "Daekwon Lee"
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- "Heesuk Rho"
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- "Sang Seok Lee"
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- "Dong Su Lee"
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- "Se Gyu Jang"
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- "Seokhoon Ahn"
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- "Seung-Yeol Jeon"
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- "Dae-Young Jeon"
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- "Yongho Joo"
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imported_as:
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- "Phonon Path Bezier Adapter external source anchor"
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- "geometry-programmable multimodal shielding precedent"
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- "DIW architecture / nanotube-interface / material-response reference surface"
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allowed_use: >-
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Use as an external materials-science precedent showing that composition,
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nanotube interface geometry, and 3D-printed macro-architecture can
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affect shielding performance, scattering, attenuation, mechanical
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resilience, and extreme-environment survivability.
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blocked_use: >-
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Do not treat as proof of GCL, proof of geometric compression, proof of
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phonon routing, proof of Bezier transport paths, or validation of any
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simulation result without separate simulator receipts and baselines.
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extracted_findings:
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- "SWCNT/BNNT neat composites achieved EMI shielding effectiveness exceeding 50 dB."
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- "Neat composites reported neutron attenuation coefficient of 1.27 mm^-1."
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- "Polymer composites reached up to 23 dB EMI shielding at sub-millimeter thickness."
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- "Direct ink writing enabled honeycomb and other programmable architectures."
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- "Honeycomb-patterned composites showed about 10-15% higher shielding effectiveness than plain-patterned counterparts at equivalent thickness."
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- "Performance was tested under cyclic strain and thermal extremes from -196 C to 250 C."
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delta_phi_gamma_lambda_binding:
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delta: "attenuation loss, leakage, scattering residue, path deviation, or failed shielding function"
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phi: "preserved transport/shielding invariant such as bounded attenuation, target arrival, or retained multimodal shielding behavior"
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gamma: "incident EMI/neutron/thermal/mechanical forcing pressure, shock intensity, strain, or simulator load"
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lambda: "scale band from nanotube interface to printed filament, honeycomb cell, device layer, and full shield"
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warden_notes:
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- "Peer-reviewed external source, but still external to GCL proof authority."
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- "Phonon-path claims require separate acoustic/thermal/material simulator receipts."
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- "Rendered Bezier paths are projection surfaces, not physical proof."
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- "Use as a geometry-dependent energy-response precedent, not a direct phonon-routing validation."
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- id: "sur-2025-uv-induced-polydiacetylene-crosslinking-solvent-resistance"
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type: "peer_reviewed_article"
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title: "Engineering solvent resistance in semiconducting polymer films through UV-induced polydiacetylene crosslinking"
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source_url: "https://pubs.rsc.org/en/content/articlelanding/2025/ra/d5ra02367j"
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doi: "10.1039/D5RA02367J"
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journal: "RSC Advances"
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year: 2025
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volume: "15"
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pages: "24142-24149"
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accessed: "2026-05-02"
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source_class: "peer_reviewed_materials_science_article"
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peer_reviewed: true
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claim_state: "HOLD"
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authority_scope: "external_source_anchor_for_crosslink_lock_in_and_multilayer_stability"
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authors:
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- "Amit K. Sur"
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- "Audithya Nyayachavadi"
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- "Piumi Kulatunga"
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- "Nien-Jung Li"
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- "Yu-Cheng Chiu"
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- "Simon Rondeau-Gagné"
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imported_as:
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- "Phonon Path Bezier Adapter crosslink lock-in anchor"
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- "UV-induced PDA morphology-preservation reference surface"
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- "multilayer solvent-resistance stability precedent"
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allowed_use: >-
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Use as an external materials-science precedent showing that UV-induced
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polydiacetylene crosslinking can improve solvent resistance, preserve
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film morphology, and support sequential/multilayer processing.
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blocked_use: >-
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Do not treat as proof of GCL, proof of geometric compression, proof of
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phonon routing, proof of Bezier transport paths, or validation of any
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simulation result without separate simulator receipts and baselines.
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extracted_findings:
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- "Functionalized DPP-carbazole conjugated copolymer with 1,3-butadiyne groups."
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- "UV-induced topochemical polymerization formed PDA crosslinks."
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- "Raman spectroscopy confirmed PDA formation."
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- "AFM/GIWAXS indicated film morphology was preserved after crosslinking."
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- "Crosslinked films showed improved nanomechanical properties and solvent resistance."
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delta_phi_gamma_lambda_binding:
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delta: "morphology drift, solvent damage, path displacement, layer dissolution, or mechanical-integrity loss"
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phi: "preserved morphology, retained film/path identity, retained electronic/transport function, or multilayer-safe state"
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gamma: "UV exposure, solvent challenge, sequential deposition pressure, mechanical stress, or post-processing perturbation"
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lambda: "scale band from molecular crosslink to polymer chain, thin-film domain, printed layer, and multilayer stack"
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warden_notes:
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- "Peer-reviewed external source, but still external to GCL proof authority."
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- "Lock-in claims require stabilization receipts and before/after morphology metrics."
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- "Stable film morphology is not automatically a valid Bezier transport path."
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- "Use as crosslink stabilization precedent, not direct phonon-routing validation."
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- id: "kim-2026-plasmonic-nanomachines-local-potential-gradients"
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type: "peer_reviewed_article"
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title: "Plasmonic Nanomachines: Creating Local Potential Gradients and Motions"
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source_url: "https://doi.org/10.1002/adma.73247"
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doi: "10.1002/adma.73247"
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journal: "Advanced Materials"
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year: 2026
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article_id: "e73247"
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accessed: "2026-05-02"
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source_class: "peer_reviewed_perspective_article"
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peer_reviewed: true
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open_access: true
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claim_state: "HOLD"
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authority_scope: "external_source_anchor_for_local_potential_gradients_and_nanoscale_actuation"
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authors:
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- "Yoonhee Kim"
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- "Soohyun Ji"
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- "Donghyun Choi"
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- "Jwa-Min Nam"
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imported_as:
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- "Phonon Path Bezier Adapter local-potential-gradient anchor"
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- "optical / thermal / chemical gradient-driven force reference surface"
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- "nanoscale Brownian/stochastic Warden constraint source"
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allowed_use: >-
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Use as an external Perspective anchoring local optical, thermal, and
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chemical potential gradients as mechanisms for nanoscale force and
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motion, including symmetry breaking, rectilinear motion, rotation,
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twisting, and Brownian-dominated validation constraints.
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blocked_use: >-
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Do not treat as proof of GCL, proof of geometric compression, proof of
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phonon routing, proof of Bezier transport paths, or validation of any
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simulation result without separate simulator receipts and baselines.
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extracted_findings:
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- "Plasmonic nanostructures transduce light into localized optical, thermal, and chemical gradients."
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- "Geometric and energetic asymmetries provide directional forces for translational and rotational motions."
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- "Figure 1 separates optical, thermal, and chemical potential gradients as force-generation modalities."
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- "The article highlights rectilinear, rotational, and twisting motion classes."
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- "The nanoscale regime is Brownian-dominated and requires Pe/Stokes-style checks for directional claims."
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- "Table 1 summarizes force scales, materials, morphologies, and motion modes for plasmonic micro/nanomachines."
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delta_phi_gamma_lambda_binding:
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delta: "failed motion, Brownian loss, path deviation, unbounded local heating, gradient-mode confusion, or unstable actuation"
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phi: "preserved directional motion, controlled actuation, retained local-gradient response, or measurable probe response"
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gamma: "optical intensity, thermal gradient, chemical potential gradient, viscous drag, Brownian stochasticity, or actuation load"
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lambda: "scale band from nanoparticle interface to nanomachine body, microstructure, device layer, and inspection surface"
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warden_notes:
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- "Peer-reviewed open-access Perspective, but still external to GCL proof authority."
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- "Gradient-driven actuation claims require explicit gradient type and Brownian/stochastic checks at nanoscale lambda."
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- "Rendered Bezier paths are projection surfaces, not nanomachines."
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- "Use as local-potential-gradient precedent, not direct phonon-routing validation."
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- id: "liu-2018-valency-controlled-framework-nucleic-acid-signal-amplifiers"
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type: "peer_reviewed_article"
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title: "Valency-Controlled Framework Nucleic Acid Signal Amplifiers"
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source_url: "https://doi.org/10.1002/anie.201802701"
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doi: "10.1002/anie.201802701"
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journal: "Angewandte Chemie International Edition"
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year: 2018
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volume: "57"
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issue: "24"
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pages: "7131-7135"
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accessed: "2026-05-02"
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source_class: "peer_reviewed_biomolecular_nanotechnology_article"
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peer_reviewed: true
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claim_state: "HOLD"
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authority_scope: "external_source_anchor_for_framework_nucleic_acid_valency_and_signal_amplification"
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authors:
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- "Qi Liu"
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- "Zhilei Ge"
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- "Xiuhai Mao"
|
||
- "Guobao Zhou"
|
||
- "Xiaolei Zuo"
|
||
- "Juwen Shen"
|
||
- "Jiye Shi"
|
||
- "Jiang Li"
|
||
- "Lihua Wang"
|
||
- "Xiaoqing Chen"
|
||
- "Chunhai Fan"
|
||
imported_as:
|
||
- "Phonon Path Bezier Adapter framework-valency anchor"
|
||
- "tetrahedral DNA / framework nucleic acid scaffold reference surface"
|
||
- "discrete signal-count and staircase amplification precedent"
|
||
allowed_use: >-
|
||
Use as an external biomolecular-nanotechnology precedent showing that
|
||
framework nucleic acid scaffolds can encode controlled numbers of
|
||
addressable binding sites and produce discrete, valency-dependent signal
|
||
amplification after purification and aggregation control.
|
||
blocked_use: >-
|
||
Do not treat as proof of GCL, proof of geometric compression, proof of
|
||
phonon routing, proof of Bezier transport paths, or evidence that GCL is
|
||
literal biology. Biomolecular claims remain native-domain only.
|
||
extracted_findings:
|
||
- "T1 and T3 self-hybridization were identified by native PAGE and NUPACK free-energy estimates."
|
||
- "Placeholder strands improved TDN-T1 and TDN-T3 construction, with productivities over 55% after strategy refinement."
|
||
- "SEC purification produced mono-TDN, di-TDN, and tri-TDN FNA scaffolds with high-purity building blocks."
|
||
- "AFM verified designed mono-, di-, and tri-TDN morphology with minimal aggregation."
|
||
- "Defined-valent assemblies produced staircase-like migration patterns for DNA, AuNP, and avidin/protein loading."
|
||
- "Valency-controlled avidin-HRP signal amplification produced monotonic/staircase-like electrochemical responses."
|
||
- "The sensor reported roughly 131-fold current increase at 50 nM ALU115 over blank in the supporting information."
|
||
delta_phi_gamma_lambda_binding:
|
||
delta: "uncontrolled valency, self-hybridization residue, aggregation, signal-count error, scaffold misassembly, or amplification nonlinearity"
|
||
phi: "preserved scaffold geometry, declared binding-site count, controlled signal valency, and monotonic/staircase amplification behavior"
|
||
gamma: "hybridization pressure, analyte concentration, avidin-HRP enzymatic amplification, electrochemical readout pressure, or scaffold assembly stress"
|
||
lambda: "scale band from oligonucleotide sequence to TDN vertex, mono-/di-/tri-TDN scaffold, biomolecule/AuNP conjugate, and sensor-level readout"
|
||
warden_notes:
|
||
- "Peer-reviewed native-domain biomolecular source, but still external to GCL proof authority."
|
||
- "Biology language must remain analogy-bounded outside the native FNA/sensor context."
|
||
- "Valency claims require declared binding sites, purification/aggregation receipts, and observed signal-unit counts."
|
||
- "Use as controlled scaffold-valency precedent, not direct compression or phonon-routing validation."
|
||
|
||
- id: "picard-2025-social-lives-of-mitochondria-mips"
|
||
type: "public_science_article"
|
||
title: "Mitochondria are more than powerhouses—they’re the motherboard of the cell"
|
||
source_url: "https://www.scientificamerican.com/article/mitochondria-are-more-than-powerhouses-theyre-the-motherboard-of-the-cell/"
|
||
doi: "10.1038/scientificamerican062025-QhEeouFRPCYEr2tKQNWqM"
|
||
journal: "Scientific American"
|
||
year: 2025
|
||
volume: "332"
|
||
issue: "6"
|
||
pages: "50"
|
||
accessed: "2026-05-02"
|
||
source_class: "public_science_synthesis_article"
|
||
peer_reviewed: false
|
||
claim_state: "HOLD"
|
||
authority_scope: "analogy_bound_source_anchor_for_distributed_bioenergetic_information_processing"
|
||
authors:
|
||
- "Martin Picard"
|
||
imported_as:
|
||
- "Mitochondrial Collective / MIPS Bridge source anchor"
|
||
- "distributed energy-information processing analogy"
|
||
- "autopoietic sensing / signaling / repair inspiration surface"
|
||
allowed_use: >-
|
||
Use as a public-science synthesis source for analogy-bounded concepts:
|
||
mitochondrial collectives, mito-mito junctions, cristae alignment,
|
||
fusion/fission, nanotunnels, mtDNA sharing, intercellular mitochondrial
|
||
transfer, specialization, and mitochondrial information-processing
|
||
systems.
|
||
blocked_use: >-
|
||
Do not treat as proof of GCL, proof of compression, proof of autopoiesis,
|
||
proof of engineering correctness, or medical guidance. Do not import
|
||
diet, disease, mental-health, or treatment claims into GCL engineering
|
||
docs except as out-of-scope source context.
|
||
extracted_findings:
|
||
- "Mitochondria are described as dynamic organelles that move, stretch, morph, touch, communicate, and specialize."
|
||
- "The source describes mito-mito junctions and cristae alignment across interacting mitochondria."
|
||
- "The source discusses mitochondrial fusion/fission, mtDNA sharing, nanotunnels, and intercellular mitochondrial transfer."
|
||
- "The source frames mitochondria as social organelles and as a mitochondrial information-processing system."
|
||
- "The source uses a motherboard metaphor rather than a simple battery/powerhouse metaphor."
|
||
delta_phi_gamma_lambda_binding:
|
||
delta: "energy leak, membrane-potential mismatch, failed fusion, stress residue, uncontrolled signaling, malformed repair, or abstraction drift"
|
||
phi: "preserved energy-flow invariant, stable information transfer, repairable state continuity, bounded stress response, or collective viability"
|
||
gamma: "stress load, metabolic signal pressure, hormonal/environmental forcing, mutation-load analogy, or simulator pressure"
|
||
lambda: "scale band from crista, mitochondrion, mito-mito junction, nanotunnel, cell, tissue, organ, organism, to GCL inspection surface"
|
||
warden_notes:
|
||
- "Public science synthesis source, not peer-reviewed proof authority."
|
||
- "Biology language must remain analogy-bounded outside native mitochondrial biology."
|
||
- "Medical, diet, disease, or treatment claims are out of scope for GCL engineering docs."
|
||
- "Use as distributed bioenergetic information-processing precedent, not direct compression validation."
|