See how your reported results read as versioned evidence records — linked to experiments and limitations.Know what the science actually supports before you trust the answer.
Press Enter ↵ to review claims
Explore by Goal
"Biology sees right and wrong as the same color in different light."
- Delia Owens
Quick Explanation
Copied
Author snapshot — W. Paul Duprex
Active, highly‑cited virologist with strong track record in measles/paramyxovirus biology and rapid pivot to SARS‑CoV‑2 research; metrics vary by source (h‑index 41 vs 57; >4,500–11,900 citations) — see representative works below.
Key quantitative sources: OpenAlex author profile (works_count=197; cited_by_count=11,913; h_index=57) and the provided author metrics (h_index=41; citations=4,534; 83 papers) — differences reflect database coverage and name disambiguation.
Quick links:
Sources: OpenAlex author snapshot and Science 2021 article (see long review for full inline citations).
Long Explanation
Author Review: W. Paul Duprex — visual, evidence‑based critique
Visual summary first — three compact figures (productivity by year, citation accumulation, representative-paper impact). Explanatory notes follow each figure with rigorous caveats and inline evidence.
Figure 1 — Publications per year (OpenAlex counts_by_year)
Interpretation: OpenAlex reports sustained productivity with spikes in 2007, 2011–2012, 2014, and a major rise in 2020–2021 coincident with the COVID‑19 pandemic and collaborative, high‑visibility reviews and multi‑author studies
Figure 2 — Cumulative citations (two available snapshots)
Interpretation: Citation totals differ substantially across sources (4,534 vs ~11,900) due to database coverage (Scopus/Google Scholar/OpenAlex differ in including conference papers, preprints, consortium papers, and name disambiguation). Use multiple indices when assessing impact; OpenAlex shows broader coverage here
Figure 3 — Representative high‑impact papers (selected by citation and relevance)
Notes: These papers exemplify two threads: (1) fundamental paramyxovirus/measles biology (mechanistic animal and cell models) and (2) rapid translational/epidemiologic work during emergent outbreaks (SARS‑CoV‑2 surveillance & antigenic mapping). Both types raise different expectations for experimental control and inference strength.
Evidence synthesis — strengths
Track record of mechanistic virology: multiple experimental studies on measles, mumps, canine/rinderpest, paramyxovirus neurovirulence and tropism using in vivo macaque or ferret models, ex vivo organotypic slices, recombinant viruses, and functional molecular virology approaches — consistent, deep domain expertise across decades
Combination of genomic surveillance and functional follow-up: Science 2021 RDR study paired large GISAID sequence analysis (~146,795 sequences) with phylogenetics and targeted antigenicity assays, an integrative approach linking sequence patterns to functional immune escape—high methodological breadth and relevance to public health surveillance
Collaborative, high‑visibility contributions: coauthorship on multi‑group consensus works (animal models for COVID‑19, paramyxovirus taxonomy, ICTV taxonomy updates), indicating community leadership and interdisciplinary reach
Database metric variability / name disambiguation: h‑index and citation totals vary (BGPT input: h=41, citations=4,534, papers=83; OpenAlex: h=57, citations≈11,900, works=197). This signals either (a) different database coverage (preprints, conference papers, consortium papers), (b) author name mapping differences, or (c) inclusion of group/consortium contributions — caution when treating a single metric as definitive
Collaborative papers vs individual contribution: many high‑impact items are large multi‑author studies and reviews (e.g., 'Animal models for COVID‑19'), so citation credit does not equate to singular intellectual ownership; evaluate specific papers for first/last‑author roles if assigning leadership credit.
Sampling & functional assay limitations in some works: the Science 2021 RDR study itself acknowledges geographic GISAID sampling bias and limited monoclonal/sera panels — i.e., strong for detecting recurrent deletions, weaker for extrapolating global antigenic fitness without ongoing surveillance
Potential conflicts and funding transparency: no declared competing interests for the Science 2021 RDR study, but funder lists are large and diverse; always check original COI statements per paper for financial‑incentive bias (no evidence of COI influence here)
Overall assessment (evidence‑weighted)
W. Paul Duprex is an established, domain‑expert virologist with sustained experimental contributions to paramyxoviruses (measles, mumps, canine distemper) and meaningful involvement in pandemic‑era SARS‑CoV‑2 research. Strengths lie in mechanistic animal models, virology techniques, and the ability to contribute to large, interdisciplinary consortia. The principal caveats are (1) metric variability across databases and (2) the distinction between leadership vs collaborative coauthorship when interpreting citation-based impact.
What would change this conclusion?
Discovery of retracted or irreproducible key papers would lower confidence (no such patterns found in the reviewed records).
Author-level evidence of undisclosed COIs across multiple works would reduce trust (no signals found in cited papers' COI statements for the representative works).
Detailed breakdown showing most citations arise only from consortium authorship with negligible scientific input would alter assessment — recommend checking authorship position and contribution statements on high‑impact outputs.
Actionable recommendations for users evaluating Duprex's work
When assessing a specific claim, inspect the original paper's Methods, authorship roles, and raw data links (GenBank/GISAID accessions provided in many papers).
Use multiple bibliometric sources (OpenAlex, Scopus, Google Scholar) to triangulate impact and check for name disambiguation.
For translational claims (e.g., antigenic escape), prioritize studies with large functional antibody panels and in vivo correlates; interpret single‑mAb neutralization losses cautiously.
Representative citations (used above)
If you want a deeper, automated analysis (author disambiguation across databases, per-paper authorship-role parsing, or extraction of Methods/COI details across Duprex's corpus), click to run an AI scientist agent.
Feedback:
Updated: March 10, 2026
BGPT Author Review
Scientific Quality
80%
Duprex shows sustained, high-quality experimental virology across decades (in vivo models, molecular virology, antigenicity work) with demonstrated ability to contribute to high‑impact collaborative studies; scores tempered by database metric discrepancies and the proportion of multi‑author consortium papers which complicate per‑paper credit attribution.
Communication Quality
80%
Publications are typically well-structured, methods-detailed, and accessible to specialist readers; coauthored reviews and taxonomy pieces show capacity for clear synthesis, though some high-collaboration papers dilute individual voice.
Author Novelty
70%
Work combines long-standing mechanistic contributions (measles/paramyxovirus biology) with timely novel inputs during COVID-19 (e.g., RDR deletions), indicating moderate-to-high novelty when pivoting to emergent problems.
Scientific Rigor
80%
Experimental approaches (animal models, organotypic slices, recombinant viruses, functional neutralization) indicate high rigor; acknowledged limitations in surveillance sampling and antibody panels in some studies temper absolute rigor scores.
Aggregating Duprex's publication records from OpenAlex and Google Scholar, disambiguating authorship, and outputting per-paper author positions, citation counts, and COI presence to quantify individual contribution.
Get emailed when your analysis is done!
We'll email you the results when your analysis is finished.
Hypothesis Graveyard
Hypothesis that recurrent NTD deletions alone drive population-level immune escape is weakened because polyclonal sera often retain neutralization and deletions show sampling/geographic biases.