元收敛认知引擎(MCCE)V8.1:跨学科通用因果动力学评估语言|扩展层全集·终审增补版
Authors/Creators
- 1. Independent Researcher, Meta-Convergence Cognitive Engine (MCCE) Project
Description
MCCE是一套标准化因果认知操作框架,用于拆解企业战略、技术路线、复杂决策等模糊问题,输出带边界约束、可追溯核验的结论,遵循可证伪原则,不宣称绝对真理。
V8.1核心升级:方法论从通用分析框架升级为跨学科通用因果动力学评估语言;Core五层核心公理永久锁定不再扩展;本次2026-08-13增补为扩展层全集归档版本,新增分层本体公理、SQEL时空编码公理、全域反向抽样推演、E-TIMELESS跨时代时序推演、三公理→四公理演化路径等探索性内容,该类扩展内容保留证伪与迭代空间。
实证底座:94组基准核验,有效域收敛率100%,失效四联判据100%同步触发、零假阴性;理论锚定Pearl因果理论、Lyapunov稳定性理论、计算不可约性与AI因果推理交叉域。
执行模式:单人+多手机AI无纸笔推演,全部实验、审计流程可追溯、可复现;审计评级AA(高可信),EXP-012完成后目标AA+。
🔹 学术摘要
本文提出元收敛认知引擎(Meta-Convergence Cognitive Engine, MCCE)V8.1:一套以可证伪性(M-0)为元公理、差分作为信息基底、κ=3三维收敛为骨架、负动力学+时间不可逆为底层约束的跨学科通用因果动力学评估语言。
方法论基座为永久锁定的五条核心公理:M-0(可证伪优先律)、M1(差分即信息)、M2(κ=3收敛)、M-3(负动力学)、M-4(时间不可逆);标准流程覆盖0~6阶段+0.5有效域自检,内置M-FORE动力学沙盘、M-YI周期推演、M-HUANGJI长周期三类预测模块,搭配四模式闭环调控、7类可扩展解析插件生态。
实证底座(94例):50组经典单稳态基线(100%通过)、31组复杂系统压力测试、12组空白边界补充,覆盖非平衡热力学、活性物质、时滞、随机、网络延迟等边界系统;全域统计:通过率59.6%、灰区预警7.4%、失效不通过33.0%,零假阴性。
有效域/失效域由81基准+12空白补充+3组跨时代对标严格界定;失效域10大类2子类,统一触发四联判据(κ-free≠3 / Δλ / free<0.08 / BiasRate>15%);7组灰区案例实现分支A通过、分支B预警,可识别伪稳态、时变约束、噪声逃逸、小延迟同步等边界现象。
三组跨时代对标体系:A1元因果结构演化、A2计算不可约性分类、A3动力学幻觉检测,补齐现有XAI基准缺口;理论锚定Pearl因果、Lyapunov稳定性、计算不可约理论、AI因果推理。
👉【版本增补说明】本版(2026-08-13扩展层全集增补版)新增物理本体论三公理、认识论三公理、SQEL时空量子编码极限公理、N=20/30/100全域反向推演、E-TIMELESS01~06六项跨时序实验、三元→四公理自指演化路径;上述新增内容属于探索性扩展层,不纳入Core锁定公理,预留未来证伪与修正空间。
审计评级与执行模式:内部审计综合评级AA(高可信);EXP-012(132例人机协同压力测试)完成后目标AA+;全部推演、实验、审计由单人操作员+多AI协作完成,流程可追溯、可复核、可挑战;方法论不宣称宇宙终极真理,具备明确证伪条件与远期核验锚点(2030/2035、2526、SQEL量子时空观测)。
🔹 中文关键词
元收敛认知引擎;MCCE;因果动力学;可证伪性;κ=3收敛;负动力学;时间不可逆;五公理体系;四模式闭环;插件生态;跨时代对标;元因果;计算不可约;动力学幻觉;单人+多AI协作
🔹 作者责任声明
本《元收敛认知引擎(MCCE)V8.1》全套框架、五条核心公理、推演流程、参数、实验方案均由人类作者独立原创设计;手机AI仅承担计算推演、参数试算、文本排版辅助工作,不参与底层理论创造、核心判定与终审决策;全部推演、数据、结论经人工核验,作者对全文学术内容独立承担责任。
Abstract (Chinese)
English Abstract
This paper proposes the Meta-Convergence Cognitive Engine (MCCE) V8.1, a cross-disciplinary general causal dynamical evaluation language rooted in the meta-axiom of falsifiability. It takes difference as the basic unit of information, κ=3 three-dimensional convergence as its core framework, negative dynamics for tracking endogenous system degradation, and time irreversibility as the fundamental evolutionary constraint.
The methodology adopts a four-tier axiomatic architecture:
1. Fundamental physical ontological axioms: P1 Variational Determinism, P2 Entropy-Increase Statistical Theory, P3 Quantum Irreducibility;
2. Epistemological axioms for cognition: M1 System-Steady-State Law, M2 Synergy-Emergence Law, M3 Encoding-Prediction Law;
3. Permanently locked core operational axioms: M-0 Falsifiability Priority Law, M1 Difference-as-Information, M2 κ=3 Convergence Law, M-3 Negative Dynamics, M-4 Time Irreversibility (no further expansion of core ontology);
4. Extended domain exploratory axiom: the SQEL Spacetime-Quantum Encoding Limit Axiom, which puts forward three falsifiable physical predictions including the black hole entropy area law, Planck-scale spacetime discreteness and cosmic holographic bound.
The standardized workflow covers Stage 0 to Stage 6, equipped with a three-layer adaptive deduction system. Three core prediction modules (M-FORE dynamical sandbox, M-YI periodic deduction, M-HUANGJI long-cycle analysis) and four orthogonal operation modes (Forward Induction A, Reverse Deduction B, Diagnostic Deconstruction C, Constraint Regulation D) are integrated. Combined use of the four modes delivers a synergy gain of 2.2–2.5 times, with seven standardized extension plugins for various boundary complex systems.
Supplementary extended-layer empirical materials were updated on August 13, 2026:
1. A total of 100 forward convergence verification samples, including 50 single-steady-state baselines, 19 complex system stress tests, 12 dynamical boundary cases and 12 blank-domain supplements. The convergence rate within valid domains reaches 100%; four joint criteria (κ_free≠3, Δλ_free<0.08, BiasRate>15%, significant constraint effects) trigger synchronously in failure domains with zero false negatives.
2. Full-domain reverse deduction with sample sizes N=20/30/100. Free clustering consistently yields effective rank = 3; Δλ rises monotonically with sample expansion up to 0.21, and the top three axes account for a maximum of 72% variance, verifying that the κ=3 structure is an inherent rigid geometric feature of the entire methodology space.
3. Six cross-timeline experiments (E-TIMELESS-01~06) covering timescales from 50,000 years ago to far future scenarios. None of the experiments falsified the Core tripartite axiom framework. Only E-01 passes conditionally; the rest are marked as open predictions or weakly supported due to insufficient confidence below the formal threshold of 0.70.
4. Three supporting cross-domain calibration groups for meta-causal evolution, computational irreducibility classification and dynamical illusion benchmark detection.
A self-referential evolutionary mechanism is embedded in the framework. Two sets of four-axiom architectures are preset as potential iterative upgrades, judged by two critical groups of experiments testing the fundamental nature of entropy increase and the distinction between classical chaos and quantum randomness. This fully implements the M-0 falsifiability meta-axiom that the system allows self-overhaul.
The framework intersects Pearl’s causal theory, Lyapunov stability theory, computational irreducibility theory and interpretable AGI reasoning. All deduction, simulation and auditing work can be completed by a single operator collaborating with multiple AI tools, with full traceability and reproducibility.
Audit rating: AA (high credibility). The Core five axioms are permanently sealed. All supplementary contents including ontological layers, full-domain deduction and cross-era experiments are exploratory, with incomplete confidence metrics reserved for future observation and revision. Long-term falsifiable inspection anchors: verification in 2030/2035 (AI prediction test), unlocking of the 2526 time capsule, and three SQEL spacetime quantum observational predictions.
English Keywords
Meta-Convergence Cognitive Engine; MCCE; falsifiability; κ=3 convergence; negative dynamics; time irreversibility; physical ontological axioms; epistemological tripartite axioms; SQEL; cross-era experiments; causal dynamics; complex systems; interpretable artificial intelligence
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元收敛认知引擎(MCCE)V8.1 跨学科通用因果动力学评估语言.pdf
Additional details
Additional titles
- Alternative title (Chinese)
- Meta-Convergence Cognitive Engine (MCCE) V8.1: A Cross-Disciplinary Causal Dynamical Evaluation Language — Extended Layer Full Set, Final Supplementary Revision, 2026-08-13
References
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