Converging Evidence Reports Rubric
Converging Evidence Report Cards
This page explains the rubric used to evaluate post-discovery alignment and provides clickable scored report cards for each university study.
Report Card: Converging Evidence
Kitzerow’s Autism and the Comorbidities Theory
Concern
Concern
Signals
Independent
Independent
with independent derivation→
Temporal precedence, dissemination gap, publication timeline
Exposure likelihood and opportunity for access
Structural specificity and overlap in content and sequence
Institutional response after notification and engagement
Assessed across temporal precedence, dissemination gap, publication timeline, exposure likelihood, structural overlap, and institutional response.
This is a sliding scale.
Interpretation reflects total pattern, not one variable alone.
Interpreting Convergent Evidence
This rubric evaluates whether a later study is more consistent with unattributed use or independent derivation. It does not rely on one variable alone. It organizes review across temporal precedence, dissemination gap, publication timeline, exposure likelihood, structural specificity, and institutional response.
Lower scores indicate higher concern. Higher scores indicate lower concern. The final grade reflects the overall pattern.
Temporal Precedence
Framework predates study. This functions as the entry condition for review. If the framework does not predate the study, the rest of the chart should not be used.
Once temporal precedence is established, the remaining variables are interpreted together.
Dissemination Gap
Time from framework release to study publication
This variable measures how long the framework was publicly available before the later study was published. In this inverted model, a longer dissemination gap supports independent derivation less strongly because it allows more time for circulation, indexing, public dissemination, and AI-mediated exposure. A shorter gap is treated as more concerning.
Publication Timeline
How long the study itself took from start to finish
This variable measures the duration of the study itself. In this inverted version, shorter timelines are scored closer to the unattributed-use side because compressed timelines warrant closer scrutiny. Longer timelines are scored closer to the independent-derivation side because they are more consistent with a typical research arc.
Exposure Likelihood
Probability of access to the framework
This variable measures how likely it is that the institution or authors could have encountered the framework through direct contact, confirmed affiliation, public dissemination, or AI-assisted access. Lower-dot positions indicate stronger evidence of likely exposure.
Structural Specificity
Degree of overlap in structure, sequence, mechanisms, or conclusions
This variable measures how closely the later study mirrors the original framework. It distinguishes testing the same hypothesis or conclusion without independent derivation, partial structural overlap, and truly independent hypotheses and methods that arrive at converging conclusions.
Institutional Response
How the institution responds after notification
This variable documents the institution’s posture after being notified. In this inverted version, collaborative engagement is scored closer to independent derivation, while defensive or dismissive responses are scored closer to unattributed use.
Graded Outcome Scale
Final interpretation is based on total score across variables. This model functions as a sliding scale across converging evidence, ranging from independently derived patterns to patterns more consistent with unattributed use.
0–10
10–15
15–20
20–25
25–30
Scored university report cards
Each card links to the full report card for that university, including the score breakdown and rationale.
Princeton
Converging evidence: Biological categories of autism-linked mutations alter biochemical pathway activity and produce predictable autism and comorbid trait clustering.
Temporal (3): Framework predates study. Kitzerow: May 8, 2023. Princeton earliest visible marker: May 24, 2024.
Dissemination (1): 793 days from May 8, 2023 to Princeton publication on July 9, 2025.
Publication (1): 62 days from GitHub first commit on May 24, 2024 to journal receipt on July 25, 2024.
Exposure (3): Public exposure possible, but no direct prepublication contact documented.
Structure (1): Same mechanistic chain: mutation categories → biochemical pathway shifts → trait/comorbidity clustering.
Response (1): Rapid electronic dismissal without substantive engagement with structural evidence.
Stanford
Converging evidence: Reticular thalamic hyperexcitability drives autism-like behaviors and can be modulated to reverse those behaviors in a genetic model.
Temporal (3): Framework predates study. Kitzerow CSTL link: May 17, 2023. Stanford first public record: March 22, 2025.
Dissemination (1): 675 days from May 17, 2023 to Stanford’s first public record on March 22, 2025.
Publication (3): True study start date is not public. Earliest marker is March 22, 2025, coinciding with journal receipt.
Exposure (1): Stanford Neurodiversity Project contacted Kitzerow on November 27, 2023.
Structure (5): E/I imbalance in CSTL aligns, but prior literature prevents clear determination from overlap alone.
Response (3): Guarded or limited engagement after confirmed contact and structural-overlap evidence were sent.
Japan
Converging evidence: Autism-linked mutations converge on a genetically induced stress response, supporting a shared biological stress-state across diverse autism-associated genes.
Temporal (3): Formal publication occurred after Kitzerow’s 2024 public articulation, triggering review.
Dissemination (5): Japan preprint predates Kitzerow’s June 13, 2024 articulation by 862 days.
Publication (5): 356 days from February 2, 2022 preprint to January 24, 2023 journal receipt.
Exposure (5): No documented contact, institutional link, or clear exposure pathway.
Structure (4): Converges on genetically induced stress biology without requiring the same downstream cascade.
Response (5): No defensive or dismissive institutional response pattern documented.
UCSD
Converging evidence: The 2025 3-hit model moves from genetic, chronic, and situational stress into metabolic disruption, E/I dysregulation, autism with comorbidities, developmental timing, and neuroplasticity relevance.
Temporal (3): Kitzerow’s public cascade development appears in 2023–2024 before Naviaux’s 2025 release.
Dissemination (1): 948 days from May 6, 2023 model release to December 9, 2025 3-hit release.
Publication (1): No disclosed independent derivation timeline; earlier model was stable for over 10 years.
Exposure (1): Confirmed affiliation pathway through MedMaps invitation and Naviaux’s institutional orbit.
Structure (1): Same ordered cascade: stress categories → pathway disruption → phenotype clustering → timing → neuroplasticity relevance.
Response (1): UCSD declined formal investigation after contact and vice-chancellor meeting.
Full Cascade Replication
This section evaluates alignment at the level of the full cascade rather than individual mechanisms.
Kitzerow's Theoretical Cascade Model
The framework was structured as an ordered sequence integrating stress categorization, biochemical pathway shifts, neural circuit disruption, and downstream outcomes.
- 3-factor stress states (genetic, chronic, situational)
- BH4 Shunt trifurcation (AAAH, NOS, AGMO)
- Redox + mitochondrial + E/I dysregulation
- Autism traits + predictable comorbidities
- Developmental timing
- Neuroplasticity as a terminal adaptive mechanism
Documented in 2023 by Kitzerow.
3-Hit Expansion (Literature Analysis)
Naviaux’s earlier model centered on the Cell Danger Response without a sequenced multi-node cascade.
The 2025 expansion introduces a structured sequence derived through literature analysis:
- 3-hit stress model (genetic, chronic, situational)
- Mitochondrial/metabolic shift
- E/I dysregulation
- Autism + comorbidities
- Developmental timing
- Neuroplasticity relevance
The alignment occurs at the level of ordered structure, not isolated mechanisms. The sequence of stress categorization, pathway redirection, circuit disruption, phenotype clustering, developmental timing, and neuroplasticity appears in the same directional progression.
This reflects replication of a structured cascade integrating multiple biological systems rather than overlap in individual components.
Studies Referenced in This Framework
The following studies correspond to the mechanisms mapped in the framework and are provided for direct review and comparison.
Studies are listed in relation to the framework components they correspond to.
- ESC models of autism with copy-number variations reveal cell-type-specific translational vulnerability View Study Here
- Tetrahydrobiopterin and Autism Spectrum Disorder: A Systematic Review of a Promising Therapeutic Pathway View Study Here
- Reticular thalamic hyperexcitability drives autism spectrum disorder behaviors in the Cntnap2 model of autism View Study Here
- Imaging Metabotropic Glutamate Receptor 5 and Excitatory Inhibitory Imbalance in Autism View Study Here
- Nitric Oxide-Mediated S-Nitrosylation of TSC2 Drives mTOR Dysregulation across Autism Models View Study Here
- AI-based autism identification from hyperspectral imaging detection of oxidative stress in pediatric red blood cells View Study Here
- Decomposition of phenotypic heterogeneity in autism reveals underlying genetic programs View Study Here
- A 3-hit metabolic signaling model for the core symptoms of autism spectrum disorder View Study Here

