- models/GADM-CLD.md: causal-loop diagram, loops, 49 signed links - models/GADM-0.2.md: organism extensions (K split, attention headroom, selection channel O, membrane/lineage levers, participation claims), equations, findings - simulations/gadm02: stdlib simulation, scenario runner, OAT sensitivity, unit tests; results committed - scenarios/: six GADM-0.1 regimes + baseline + two organism-axis variants - metrics/MetricsCatalog.md, models/GADM-0.3-Candidates.md, references/LiteratureComparison.md - ASSEMBLY-WP-0005 (proposed, residual): GADM-0.3 Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com> Assistant: claude-code Assistant-Model: opus Assistant-Process: 1494246@bnt-lap001 Assistant-Session: caf6de6f-f9e4-47ce-a584-49baa271fa4b
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7.8 KiB
Literature Comparison v0.1
Status: first orientation map. Bibliographic details are unverified. Check each entry against the original before citing it.
Purpose: place the Generative Assembly Society framework, GADM and the information-organism lens relative to existing work, so that the project (a) does not reinvent existing results, (b) borrows established methods, and (c) states clearly what is new.
Each entry gives the overlap, the difference from this project, and what to borrow.
1. Assembly and complexity
| Work | Overlap | Difference | Borrow |
|---|---|---|---|
| Assembly Theory (L. Cronin, S. I. Walker and colleagues; e.g. Sharma et al., Nature 2023) | Objects as assemblies built from reusable components; selection as the source of complex objects | A physical and chemical theory with a measurable assembly index. INTENT.md explicitly does not require accepting it. | The idea of quantifying "assembly depth" as a reuse measure for X |
| The adjacent possible (S. Kauffman, Investigations, 2000) | Future combinations reachable from current components ≈ viable future assembly space | Biological and theoretical, not institutional | Vocabulary for reachable futures; combinatorial growth arguments |
| Technology as combination (W. B. Arthur, The Nature of Technology, 2009) | Technologies built from existing technologies; recursive composition | Descriptive history of technology, no institutional model | Evidence for R1 (generative reuse) |
| Economic complexity (C. Hidalgo & R. Hausmann, e.g. PNAS 2009; The Atlas of Economic Complexity) | Capabilities as recombinable building blocks; diversity × ubiquity | Measures national capability structures from trade data | Empirical proxies for N and X |
2. Agency, capability and freedom
| Work | Overlap | Difference | Borrow |
|---|---|---|---|
| Capability approach (A. Sen, Development as Freedom, 1999; M. Nussbaum) | Effective agency as reachable functionings, not formal liberty | Normative development framework, no dynamic model | Operationalization of G; lists of central capabilities |
| Real freedom / basic income (P. Van Parijs, Real Freedom for All, 1995) | Existence principle; participation decoupled from labor | Focused on income; does not model domination or commons | Arguments for D_s and the Existence principle |
| Republican non-domination (P. Pettit, Republicanism, 1997) | Domination as capacity for arbitrary interference, separate from wealth | Political philosophy | Conceptual grounding for modeling P separately from wealth |
3. Commons, institutions and power
| Work | Overlap | Difference | Borrow |
|---|---|---|---|
| Governing the commons (E. Ostrom, 1990) | Commons as institutions; polycentric governance | Natural-resource commons. Assembly commons are mostly non-rival. | Design principles for commons governance (WS-06, WS-11) |
| Commons-based peer production (Y. Benkler, The Wealth of Networks, 2006) | Non-rival knowledge commons; open source | Network economy, pre-AI | Evidence for ρ and I_X mechanisms |
| Inclusive vs. extractive institutions (D. Acemoglu & J. Robinson, Why Nations Fail, 2012) | Institutional configurations determine whether success broadens or closes access | Historical, macro-institutional | Framing for the R3 / B1 loop (success becomes control) |
| Capital concentration (T. Piketty, Capital in the Twenty-First Century, 2014) | Concentration of returns when r > g | Wealth-focused | Data and dynamics for W_c in the GADM-0.3 power extension |
| Entrepreneurial state (M. Mazzucato, 2013) | Public risk-bearing in innovation | Focused on the state | Evidence for public risk pools (F) |
4. Automation and distribution
| Work | Overlap | Difference | Borrow |
|---|---|---|---|
| Task-based automation (D. Acemoglu & P. Restrepo, e.g. "Automation and New Tasks", Journal of Economic Perspectives, 2019) | Automation displaces tasks, new tasks reinstate labor | Labor-market focus, assumes wage-based participation | Labor share dynamics for w_L |
| AI and income distribution (A. Korinek & J. Stiglitz, NBER working paper, 2017) | Redistribution needs when automation concentrates returns | Standard welfare economics | Distribution regimes for claims I |
5. Systems, cybernetics and viability
| Work | Overlap | Difference | Borrow |
|---|---|---|---|
| System dynamics (J. Forrester, Industrial Dynamics, 1961; D. Meadows et al., The Limits to Growth, 1972) | Stock-and-flow modeling, feedback loops | GADM is a direct descendant in method | Method: causal-loop diagrams, stock-flow conventions, validation practice |
| Requisite variety (W. R. Ashby, An Introduction to Cybernetics, 1956) | A regulator needs as much variety as what it regulates; the membrane as variety filter | Abstract cybernetics | Theoretical basis for membrane design |
| Viable System Model (S. Beer, Brain of the Firm, 1972) | Viability, recursion, regulation of organizations | Organizational cybernetics, not learning systems | Recursion and viability vocabulary for the AIPN and the organism lens |
| Resilience and panarchy (C. S. Holling; L. Gunderson & C. S. Holling, Panarchy, 2002) | Adaptive cycles, release and reorganization ≈ disassemble/reassemble | Ecological systems | Adaptive-cycle framing for transition dynamics (WS-12) |
| Planetary boundaries (J. Rockström et al., Nature, 2009) | Non-tradeable ecological floors | Earth-system science | Grounding for the E floor |
| Doughnut economics (K. Raworth, 2017) | Social floor plus ecological ceiling as a viability corridor | No dynamic model of generativity | Corridor framing for constitutional constraints |
6. Attention
| Work | Overlap | Difference | Borrow |
|---|---|---|---|
| H. A. Simon, "Designing Organizations for an Information-Rich World" (1971) | "A wealth of information creates a poverty of attention" | Organizational design | Founding statement of attention as the scarce resource |
| Attention economy (T. Davenport & J. Beck, The Attention Economy, 2001) | Attention as an economic resource | Managerial, treats attention as something to capture | Contrast case for x_att |
| Surveillance capitalism (S. Zuboff, 2019) | Extraction-funded attention, discovery concentration | Critical, not modeled | Scenario grounding for the attention-oligopoly regime |
| Goodhart's law / Campbell's law | Metric gaming | — | Basis for the metrics catalog's Goodhart risks |
7. What appears new in this project
To be confirmed by an actual literature search:
- Generativity as the objective. Using viable future assembly space (rather than welfare, output or capability sets alone) as the target of institutional design.
- Information organisms as a distinct capital class, with learning with use, lineage inheritance, membranes and metabolism, coupled into a macro model. Related work treats AI as automation capital or as a labor substitute.
- Membrane and lineage control as domination channels, separate from wealth.
- Attention headroom as a stock inside a macro diagnostic, with an explicit guard against counting captured attention.
8. Next steps
- Run a real literature search (WS-01, WS-07, WS-14 priorities) and verify the bibliographic details above.
- Look specifically for prior macro models that treat AI systems as learning, inheritable capital; any such work would affect claim 2.
- Review system-dynamics validation practice (e.g. structure-verification and extreme-condition tests) and apply it to GADM-0.2.