bioRxivCancer BiologyPreprint
Audited vibe coding suggests partial fetal-like convergence of tumor proteomes
Abstract
The balance between how much human tumors recapitulate fetal tissue programs versus lose adult tissue identity remains unresolved. I used audited vibe coding, a human-mediated, cross-model critique-and-refinement workflow, to re-analyze a public pan-cancer proteomic atlas. A primary large language model wrote and executed the analysis under scientific direction, while a separate model family audited the code, outputs and claims; findings were returned for correction across seven versioned releases. Among 229 tumor-adjacent pairs in seven organs, tumor-minus-adjacent proteomic change partially aligned with reverse fetal-to-adult maturation (organ-balanced cosine, 0.240; 95% interval, 0.138 to 0.335), with positive alignment in 189 of 229 patients (82.5%). The organ-balanced projection coefficient was 0.195 (95% interval, 0.069 to 0.244), indicating movement along only part of the developmental distance. Although reverse maturation overlapped adult-identity loss, a positive developmental component remained after identity loss entered first (0.203; 95% interval, 0.129 to 0.239). Suppression of adult-high proteins contributed to more positive alignment than reactivation of fetal-high proteins. The vibe coding audits identified substantive defects. A common-mask correction reduced the matched-organ advantage from 0.074 to 0.059; a missing-value correction barely changed aggregate geometry but replaced 5 of the top 40 liver contributors; and coupled resampling repaired uncertainty accounting without changing patient scores. As with any single report, the "vibe reanalysis" biological results are candidate discoveries pending independent replication. The workflow is a single feasibility case, not a reliability benchmark, and shows how conversationally generated analysis can be made more inspectable when model-written code is treated as untrusted, versioned and subject to separate-model critique and executable checks.
- organism: human
- assay: proteomics
- research focus: cell type annotation
- research focus: clustering
- research focus: differential expression
- approach: deep learning
- approach: contrastive learning
- approach: benchmark study
- Citations
- 0
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Towards routine proteome profiling of FFPE tissue: Insights from a 1,200 case pan-cancer study
Johanna Tüshaus, Stephan Eckert, … Bernhard Küster·The EMBO JournalPeer-reviewed·Nov 18, 2024
- High-throughput proteomic analysis of FFPE tissue samples facilitates tumor stratification
- Spatial distribution of the proteome in human body and cancers
Liang Yue, Wenhao Jiang, … Tiannan Guo·NaturePeer-reviewed·Jun 17, 2026
- ProteoMixture: A Cell Type Deconvolution Tool for Bulk Tissue Proteomics Data
Pang-ning Teng, Joshua P. Schaaf, … Nicholas W. Bateman·iSciencePeer-reviewed·Feb 12, 2024
- AI-powered Deep Visual Proteomics reveals critical molecular transitions in pancreatic cancer precursors
Jimin Min, Lisa Schweizer, … Anirban Maitra·Cancer DiscoveryPeer-reviewed·Apr 21, 2026
- Deep topographic proteomics of a human brain tumour
S. Davis, C. Scott, … R. Fischer·bioRxiv·Mar 21, 2022