An Empirical Study of Daopological Measures (Revised v2) Measure–Entropy Analysis of 10,455 Structural Units —with a Case Study of Detecting and Fixing an Implementation Bias

This paper is a revised version of An Empirical Study of Daopological Measures: Measure–Entropy Analysis of 10,455 Structural Units. In v1, we reported a “strong positive correlation between measure and entropy” as a novel empirical finding that contradicted the theoretical prediction of independent four-quadrant distribution. Subsequent code audit and independent replication revealed that this phenomenon was not a theoretical prediction failure, but an implementation bias: v1 had simplified the migration confidence c(x, y) to a binary indicator (“shared kernel family → 1, else → 0”), which made the structural measure µstructure and thetransferability entropy Htransfer mathematically function-dependent (r = 1.000). The four quadrants therefore collapsed into two. This paper reports the corrected results. By redefining c(x, y) as a weighted average of the Jaccard similarity over role sets and the Jaccard similarity over relation-type sets, all four quadrants expand, and the two-axis correlation drops to r = 0.8052. Corrected core results: (1) 10,455 structural units, 8,462 unique signatures, 37 academic domains; (2) Daopological entropy HD = 8.2947, with entropy ratio HD/ log |K| = 0.9172, still well above the 0.8 health threshold; (3) four-quadrant distribution: rich 4,777 / concentrated 451 / dispersed 451 / poor 4,776, with all four quadrants non-zero; (4) 198 cross-domain kernels spanning ≥ 3 domains, the largest spanning 16 disciplines; (5) only 14 fully isolated nodes (0.13%). We formally retract three claims from v1: (a) “2.93 billion structural nodes” (not reproducible by any of four natural algorithms); (b) “HD = 0.9705” (denomina tor polluted by surface-level signatures); (c) “strong positive correlation is a new theoretical finding” (actually an implementation artifact). The correction process itself constitutes a methodological contribution: in LLM-based knowledge-extraction pipelines, “apparently contradictory results” should first be assumed to be implementation-layer issues rather than theoretical discoveries; structured auditing (run code first, draw conclusions second) should become standard practice.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-16
DOI
https://doi.org/10.5281/zenodo.23408783
Primary Topic
scientometrics and bibliometrics research
Type
preprint
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preprint

An Empirical Study of Daopological Measures (Revised v2) Measure–Entropy Analysis of 10,455 Structural Units —with a Case Study of Detecting and Fixing an Implementation Bias

Baoyuan Zhang
Zenodo (CERN European Organization for Nuclear Research)
scientometrics and bibliometrics research
preprint

An Empirical Study of Daopological Measures (Revised v2) Measure–Entropy Analysis of 10,455 Structural Units —with a Case Study of Detecting and Fixing an Implementation Bias

Baoyuan Zhang
preprint en

Abstract

This paper is a revised version of An Empirical Study of Daopological Measures: Measure–Entropy Analysis of 10,455 Structural Units. In v1, we reported a “strong positive correlation between measure and entropy” as a novel empirical finding that contradicted the theoretical prediction of independent four-quadrant distribution. Subsequent code audit and independent replication revealed that this phenomenon was not a theoretical prediction failure, but an implementation bias: v1 had simplified the migration confidence c(x, y) to a binary indicator (“shared kernel family → 1, else → 0”), which made the structural measure µstructure and thetransferability entropy Htransfer mathematically function-dependent (r = 1.000). The four quadrants therefore collapsed into two. This paper reports the corrected results. By redefining c(x, y) as a weighted average of the Jaccard similarity over role sets and the Jaccard similarity over relation-type sets, all four quadrants expand, and the two-axis correlation drops to r = 0.8052. Corrected core results: (1) 10,455 structural units, 8,462 unique signatures, 37 academic domains; (2) Daopological entropy HD = 8.2947, with entropy ratio HD/ log |K| = 0.9172, still well above the 0.8 health threshold; (3) four-quadrant distribution: rich 4,777 / concentrated 451 / dispersed 451 / poor 4,776, with all four quadrants non-zero; (4) 198 cross-domain kernels spanning ≥ 3 domains, the largest spanning 16 disciplines; (5) only 14 fully isolated nodes (0.13%). We formally retract three claims from v1: (a) “2.93 billion structural nodes” (not reproducible by any of four natural algorithms); (b) “HD = 0.9705” (denomina tor polluted by surface-level signatures); (c) “strong positive correlation is a new theoretical finding” (actually an implementation artifact). The correction process itself constitutes a methodological contribution: in LLM-based knowledge-extraction pipelines, “apparently contradictory results” should first be assumed to be implementation-layer issues rather than theoretical discoveries; structured auditing (run code first, draw conclusions second) should become standard practice.

Zenodo (CERN European Organization for Nuclear Research)
scientometrics and bibliometrics research
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