% CiteGeist-normalized public docket bibliography.
% CiteGeist review annotations identify the normalization/provenance pass.
% DOI abstracts are included only when supplied by Crossref; missing abstracts are not inferred.

@online{dembski2026blackbox30,
    author = "Dembski, William A.",
    title = "Darwin's Black Box 30 Years On",
    year = "2026",
    url = "https://billdembski.substack.com/p/darwins-black-box-30-years-on",
    day = "8",
    month = "August",
    note = "Retrieved 2026-08-12",
    organization = "Bill Dembski Substack",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@book{behe1996blackbox,
    author = "Behe, Michael J.",
    title = "Darwin's Black Box: The Biochemical Challenge to Evolution",
    year = "1996",
    publisher = "Free Press",
    isbn = "9780684827544",
    address = "New York",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{axe2004folds,
    author = "Axe, Douglas D.",
    title = "Estimating the Prevalence of Protein Sequences Adopting Functional Enzyme Folds",
    year = "2004",
    journal = "Journal of Molecular Biology",
    url = "https://doi.org/10.1016/j.jmb.2004.06.058",
    doi = "10.1016/j.jmb.2004.06.058",
    number = "5",
    pages = "1295--1315",
    volume = "341",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{melendez1996krebs,
  author = {Meléndez-Hevia, Enrique and Waddell, Thomas G. and Cascante, Marta},
  title = {The puzzle of the Krebs citric acid cycle: assembling the pieces of chemically feasible reactions, and opportunism in the design of metabolic pathways during evolution},
  journal = {Journal of Molecular Evolution},
  year = {1996},
  volume = {43},
  number = {3},
  pages = {293--303},
  doi = {10.1007/BF02338838},
  url = {https://doi.org/10.1007/BF02338838}
}

@article{muchowska2017rtca,
  author = {Muchowska, Kamila B. and Varma, Sreejith J. and Chevallot-Beroux, Elodie and Lethuillier-Karl, Lucas and Li, Guang and Moran, Joseph},
  title = {Metals promote sequences of the reverse Krebs cycle},
  journal = {Nature Ecology & Evolution},
  year = {2017},
  volume = {1},
  pages = {1716--1721},
  doi = {10.1038/s41559-017-0311-7},
  url = {https://doi.org/10.1038/s41559-017-0311-7}
}

@article{muchowska2019precursors,
  author = {Muchowska, Kamila B. and Varma, Sreejith J. and Moran, Joseph},
  title = {Synthesis and breakdown of universal metabolic precursors promoted by iron},
  journal = {Nature},
  year = {2019},
  volume = {569},
  pages = {104--107},
  doi = {10.1038/s41586-019-1151-1},
  url = {https://doi.org/10.1038/s41586-019-1151-1}
}

@book{miller1999finding,
    author = "Miller, Kenneth R.",
    title = "Finding Darwin's God: A Scientist's Search for Common Ground Between God and Evolution",
    year = "1999",
    publisher = "Cliff Street Books",
    isbn = "9780060930493",
    address = "New York",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@online{orr1996darwinid,
    author = "Orr, H. Allen",
    title = "Darwin v. Intelligent Design (Again)",
    year = "1996",
    url = "https://talkorigins.org/faqs/behe.html",
    note = "Accessed 2026-08-12",
    organization = "Boston Review",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{pallenmatzke2006,
    author = "Pallen, Mark J. and Matzke, Nicholas J.",
    title = "From The Origin of Species to the origin of bacterial flagella",
    year = "2006",
    journal = "Nature Reviews Microbiology",
    url = "https://doi.org/10.1038/nrmicro1493",
    doi = "10.1038/nrmicro1493",
    number = "10",
    pages = "784--790",
    volume = "4",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{pallen2007complexity,
    author = "Pallen, Mark J. and Gophna, Uri",
    title = "Bacterial Flagella and Type III Secretion: Case Studies in the Evolution of Complexity",
    year = "2007",
    journal = "Genome Dynamics",
    url = "https://doi.org/10.1159/000107602",
    doi = "10.1159/000107602",
    pages = "1--18",
    volume = "3",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{liu2007flagellum,
    author = "Liu, Renyi and Ochman, Howard",
    title = "Stepwise formation of the bacterial flagellar system",
    year = "2007",
    journal = "Proceedings of the National Academy of Sciences",
    url = "https://doi.org/10.1073/pnas.0700266104",
    doi = "10.1073/pnas.0700266104",
    number = "17",
    pages = "7116--7121",
    volume = "104",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    abstract = "Elucidating the origins of complex biological structures has been one of the major challenges of evolutionary studies. The bacterial flagellum is a primary example of a complex apparatus whose origins and evolutionary history have proven difficult to reconstruct. The gene clusters encoding the components of the flagellum can include \>50 genes, but these clusters vary greatly in their numbers and contents among bacterial phyla. To investigate how this diversity arose, we identified all homologs of all flagellar proteins encoded in the complete genome sequences of 41 flagellated species from 11 bacterial phyla. Based on the phylogenetic occurrence and histories of each of these proteins, we could distinguish an ancient core set of 24 structural genes that were present in the common ancestor to all Bacteria. Within a genome, many of these core genes show sequence similarity only to other flagellar core genes, indicating that they were derived from one another, and the relationships among these genes suggest the probable order in which the structural components of the bacterial flagellum arose. These results show that core components of the bacterial flagellum originated through the successive duplication and modification of a few, or perhaps even a single, precursor gene.",
    x_abstract_source = "Crossref DOI metadata",
    x_citegeist_abstract_status = "present"
}

@article{gophna2003t3ss,
    author = "Gophna, Uri and Ron, Eliora Z. and Graur, Dan",
    title = "Bacterial type III secretion systems are ancient and evolved by multiple horizontal-transfer events",
    year = "2003",
    journal = "Gene",
    url = "https://doi.org/10.1016/S0378-1119(03)00612-7",
    doi = "10.1016/S0378-1119(03)00612-7",
    pages = "151--163",
    volume = "312",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{abby2012t3ss,
    author = "Abby, Sophie S. and Rocha, Eduardo P. C.",
    title = "The Non-Flagellar Type III Secretion System Evolved from the Bacterial Flagellum and Diversified into Host-Cell Adapted Systems",
    year = "2012",
    journal = "PLoS Genetics",
    url = "https://doi.org/10.1371/journal.pgen.1002983",
    doi = "10.1371/journal.pgen.1002983",
    number = "9",
    pages = "e1002983",
    volume = "8",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{gouldvrba1982,
    author = "Gould, Stephen Jay and Vrba, Elisabeth S.",
    title = "Exaptation---A Missing Term in the Science of Form",
    year = "1982",
    journal = "Paleobiology",
    url = "https://doi.org/10.1017/S0094837300004310",
    doi = "10.1017/S0094837300004310",
    number = "1",
    pages = "4--15",
    volume = "8",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    abstract = "Adaptation has been defined and recognized by two different criteria: historical genesis (features built by natural selection for their present role) and current utility (features now enhancing fitness no matter how they arose). Biologists have often failed to recognize the potential confusion between these different definitions because we have tended to view natural selection as so dominant among evolutionary mechanisms that historical process and current product become one. Yet if many features of organisms are non-adapted, but available for useful cooptation in descendants, then an important concept has no name in our lexicon (and unnamed ideas generally remain unconsidered): features that now enhance fitness but were not built by natural selection for their current role. We propose that such features be called exaptations and that adaptation be restricted, as Darwin suggested, to features built by selection for their current role. We present several examples of exaptation, indicating where a failure to conceptualize such an idea limited the range of hypotheses previously available. We explore several consequences of exaptation and propose a terminological solution to the problem of preadaptation.",
    x_abstract_source = "Crossref DOI metadata",
    x_citegeist_abstract_status = "present"
}

@article{muller1918interlocking,
    author = "Muller, H. J.",
    title = "Genetic Variability, Twin Hybrids and Constant Hybrids in a Case of Balanced Lethal Factors",
    year = "1918",
    journal = "Genetics",
    url = "https://doi.org/10.1093/genetics/3.5.422",
    pages = "422--499",
    volume = "3",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{muller1939reversibility,
    author = "Muller, H. J.",
    title = "Reversibility in Evolution Considered from the Standpoint of Genetics",
    year = "1939",
    journal = "Biological Reviews of the Cambridge Philosophical Society",
    url = "https://doi.org/10.1111/j.1469-185X.1939.tb00934.x",
    doi = "10.1111/j.1469-185X.1939.tb00934.x",
    pages = "261--280",
    volume = "14",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    abstract = "Summary 1. In Drosophila the great majority of mutations are reversible in direction, and very commonly the “reverse mutation” appears to reconstitute precisely the original gene. The mutation from the normal to the abnormal type has been found usually to be a change from a more active to a less active condition of the gene, and is hence to be regarded as constituting, itself, a reversal of the original direction of evolution. The so‐called reverse mutation, in such a case, is really a mutation in the direction of past evolution. As the latter changes usually occur less readily than the former (except in the rare cases of highly mutable mutant genes), it is to be inferred that evolution proceeded contrary to the prevailing mutation pressure, and hence only by the aid of selection. Thus, with selection relaxed, a certain reverse evolution would tend to occur, so far as individual loci were concerned. 2. The reversibility of most mutations is significant in the theory of the gene and of evolution in showing, first, that most mutations pre not mere losses of genes. Secondly, as Timoféëff‐Ressovsky, Zimmer and Delbrück (1935) have pointed out, the fact of their fairly high reversibility indicates that most mutations involve canalized reactions in a unified gene structure. For, in the case of radiation mutations at any rate, it can be shown that activation of any one of a large number of atoms, and of gene parts, results in sensibly the same mutation; that this principle applies even to reverse mutations indicates that precisely the same gene‐part as was struck in making the original mutation need not be struck again to make the reversal. This adds to the already existing evidence (Muller, 1932) that the gene mutation process involves a chain of reactions of which the primary one may even have lain outside the gene. It is at present uncertain whether or not this process involves a breakage and linear rearrangement of the chromonema similar to that occurring in obvious gene rearrangements but much more minute. This conception, which might require a revision of older notions of distinctly delimited genes, seems however to meet with some difficulties in explaining the comparative readiness with which apparently exact reversions may be produced. 3. Considerations of mutation frequency show that a mere removal of selection for given genes would be attended by reversal of evolution, in the sense of loss of organs and of traits (e.g. pigmentation) dependent on organized reaction systems, in, geologically, a comparatively short time. In practice, there are difficulties in the way of such a stoppage of selection for given genes (or even for given alleles of them) inasmuch as there is a tendency for genes (and gene differences) to become increasingly pleiotropic in the course of evolution, through mutational transfer of functions. Stopping selection in respect to the major function of a gene, then, can only slowly, with a speed dependent on the recency with which the gene has acquired this function, lead to a genetic reversal, involving loss of this function. For such a process is now contingent upon the establishment of mutations in other genes, that accidentally happen to have the effect of taking over the secondary functions of the gene in question. Eventually, however, loss of any function must follow stoppage of selection for it, since an ever greater number of mutations must become established (both through selection for other functions, and through “drift”) that happen to disturb the organized reaction system whereby the given function is carried out. 4. There can be apparent reversal of evolution with respect to given characters brought about by selection of mutations as well as by the genetic disintegration attendant upon mere removal of selection. But in neither case will the final product be genically identical or even very similar to the archetype. For the mutations of many different genes have equivalent end‐effects, especially in the case of the “small mutations”, which are more numerous and less harmful, and hence more apt to furnish evolutionary material than the large ones. For this reason the determination of the exact mutational path of evolution involves a large element of accident and, considered from a genic point of view, this path can never really be retraced, nor paralleled, in a second evolutionary sequence, nor can the same complex genic system be twice arrived at. The probability of the phenotypic similarity being thorough‐going will depend, among other things, on the length and complexity of the path to be retraced (or paralleled), and on the extent to which the reverse (or parallel) selection applies to all features at once (as a departure in one respect will tend to influence the conditions for other features). 5. In the case of a longer, more complex path, there is an increasing role played by the complicating circumstance (mentioned in (3)) that some of the evolutionary steps have later acquired accessory functions that can no longer be dispensed with readily. At the same time their own genetic basis has spread so as to depend on an increasing number of genes, by a kind of genetic diffusion. These circumstances will often prevent even the appearance of retracement, so that an equivalent end‐result (e.g. adoption of fish‐like form by mammals) will obviously embody a quite different developmental mechanism or have a demonstrably different morphological or physiological basis. There will thus be a tendency for the old gene reactions of development and of physiology to persist in the basis of the life complex and only to be overlaid, as it were, by the newer acquirements, which would tend to develop later in ontogeny (recapitulation), and this principle would apply no matter whether these newer acquirements represented progressively different stages, or more or less phenotypic reversal to an earlier stage (a superficial reversion). Nevertheless, especially in the case of shorter paths (and more closely related organisms) there should often be the possibility both of parallel and reverse evolution involving a more nearly real retracement (forwards or backwards) of steps which, though genically somewhat different, embody essentially the same reaction changes, as judged from the point of view of ordinary embryology, physiology and morphology. For here the steps have not yet become so indispensable; moreover, the thousands of primary gene reactions are necessarily canalized into certain definite channels, that limit the possible effects of their change, as viewed by these methods, which still deal with characters standing relatively far from the gene itself. To some extent, then, reversal, as well as parallelism in evolution, maybe “real”, and to deny the homologies of the resultant forms is to make an arbitrary metaphysical distinction, created to suit the point to be proved. 6. The complex systems of chemical reactions upon which fertility and viability depend become changed by numerous mutations, differing in different populations, that become established in, geologically, a very short time. Some of these mutations, though first indifferent or only an asset, finally become necessary, through the later establishment of other mutations, which without them would be detrimental to fertility or viability. Thereafter, crossing between one of the populations in question and one like the original (or one likewise evolved from the latter) will result in hybrids that are sterile or inviable, owing to the action of these harmful mutant genes, inadequately balanced by the ones that had made them tolerable. Two groups of organisms which are not ordinarily allowed to cross with one another will thus automatically become increasingly immiscible, and their genic, chemical paths of evolution will diverge more and more. This will occur even in cases where their evolution is, from the phenotypic standpoint, strikingly parallel (owing to similar selective conditions and similar developmental and physiological bases for change), or where one of the groups undergoes a striking appearance of reversion towards the other, and even though, in the case of more closely related groups, the parallelism or reversion may involve physiological and ontogenetic processes lying on a relatively deep plane of analysis. There must also be a hidden shift in the chemical, genic basis of a population which, phenotypically, remains relatively constant. But although these deeper‐lying genic changes may for a long time remain cryptic, they will eventually find more and more expression in “unnecessary” features of the life processes, discoverable by the chemist, the physiologist, the embryologist, or the morphologist, and an ever more different basis will be laid conditioning the future evolutionary possibilities.",
    x_abstract_source = "Crossref DOI metadata",
    x_citegeist_abstract_status = "present"
}

@article{harms2013biochem,
    author = "Harms, Michael J. and Thornton, Joseph W.",
    title = "Evolutionary biochemistry: revealing the historical and physical causes of protein properties",
    year = "2013",
    journal = "Nature Reviews Genetics",
    url = "https://doi.org/10.1038/nrg3540",
    doi = "10.1038/nrg3540",
    number = "8",
    pages = "559--571",
    volume = "14",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{trotter2014ic,
    author = "Trotter, Meredith V. and Weissman, Daniel B. and Peterson, Grant I. and Peck, Kayla M. and Masel, Joanna",
    title = "Cryptic genetic variation can make {``}irreducible complexity{''} a common mode of adaptation in sexual populations",
    year = "2014",
    journal = "Evolution",
    url = "https://doi.org/10.1111/evo.12517",
    doi = "10.1111/evo.12517",
    number = "12",
    pages = "3357--3367",
    volume = "68",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{puente2025motab,
    author = "Puente-Lelievre, Caroline and Ridone, Pietro and Douglas, Jordan and Amritkar, Kaustubh and Kaçar, Betül and Baker, Matthew A. B. and Matzke, Nicholas J.",
    title = "Evolution and structural diversity of the MotAB stator: insights into the origins of bacterial flagellar motility",
    year = "2025",
    journal = "mBio",
    url = "https://doi.org/10.1128/mbio.03824-24",
    doi = "10.1128/mbio.03824-24",
    number = "10",
    volume = "16",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    abstract = "ABSTRACT The rotation of the bacterial flagellum is powered by the MotAB stator complex, which converts ion flux into torque. Despite its central role in flagellar function, the evolutionary origin and structural diversity of this system remain poorly understood. Here, we present the first comprehensive phylogenetic and structural characterization of MotAB and its closest non-flagellar homologs. We gathered homologs from 205 genomes across 27 bacterial phyla, estimated phylogenies, inferred ancestral sequences, and predicted structures for both extant and inferred ancestral proteins using AlphaFold. Our analyses characterized two structurally distinct groups: flagellar ion transporters (FIT) and generic ion transporters (GIT). FIT proteins are structurally conserved, including a characteristic square fold domain and a torque-generating interface (TGI). We further delineate FIT proteins into two subgroups, TGI4 and TGI5s, based on the presence of 4 or 5 short helices within the TGI region. TGI5 motors, such as those found in the Escherichia coli K12 system, are primarily restricted to Pseudomonadota, whereas TGI4 motors, such as the Na + -powered polar motors of Vibrio (PomAB), are distributed across a broader range of bacterial lineages. In contrast, GIT proteins exhibit substantial structural and functional heterogeneity and lack features associated with flagellar motility. Nevertheless, a conserved interaction between the A and B subunits is retained across FIT and GIT proteins, with their corresponding genes typically adjacent to operons. Functional assays in E. coli show that FIT-specific structural elements are indispensable for flagellar motility. Our results suggest that the flagellar stator motor complex evolved once from a common ancestral ion transporter, acquiring unique structural traits to support motility. This work provides a robust framework for understanding the evolutionary diversification of stator complexes and their mechanistic specialization. IMPORTANCE Flagellar motility allows bacteria to propel themselves and direct movement according to environmental conditions. It plays a key role in bacterial pathogenicity and survival. We investigated the molecular and structural diversity of the stator motor proteins that provide the ion motive force to power flagellar rotation. This study uses a comparative approach that integrates phylogenetics, 3D protein structure, motility assays, and ancestral state reconstruction (ASR) to provide insights into the structural mechanisms that first powered the flagellar motor. We provide the first phylogenetic and structural characterization and classification of MotAB and relatives.",
    x_abstract_source = "Crossref DOI metadata",
    x_citegeist_abstract_status = "present"
}

@article{andrianova2025flio,
    author = "Andrianova, Ekaterina P. and Dobbins, Amanda L. and Erhardt, Marc and Hendrixson, David R. and Zhulin, Igor B.",
    title = "FliO is an evolutionarily conserved yet diversified core component of the bacterial flagellar type III secretion system",
    year = "2025",
    journal = "Proceedings of the National Academy of Sciences",
    url = "https://doi.org/10.1073/pnas.2512476122",
    doi = "10.1073/pnas.2512476122",
    number = "34",
    pages = "e2512476122",
    volume = "122",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    abstract = "The bacterial flagellum is a complex nanomachine essential for motility, environmental sensing, and host colonization. While many of its core components have been well characterized, the relevance of proteins such as FliO, which are inconsistently annotated and poorly conserved at the sequence level, has remained ambiguous in their evolutionary and functional status. Here, we present a comprehensive phylogenomic and structural analysis of FliO across \>30,000 representative genomes spanning \>100 bacterial phyla. Additionally, during this analysis, we found that approximately 40\% of bacterial genomes contain flagellar genes—significantly fewer than previously reported. Using a custom pipeline combining low-threshold Hidden Markov models searches, operon context analysis, and structural information, we demonstrate that FliO is present in \textasciitilde 95\% of genomes encoding the core flagellar components FliP, FliQ, and FliR. This suggests that FliO is a nearly ubiquitous and ancestral core component of the flagellar type III secretion system (fT3SS). FliO exhibits considerable structural diversity, including lineage-specific acquisitions of LysM and AMIN domains. We identify FliO homologs not only in canonical flagellar systems but also in some virulence-associated T3SS and even some nonflagellated organisms, suggesting functional repurposing and highlighting its functional plasticity. Functional studies in Campylobacter jejuni reveal that FliO and its AMIN domain are critical for efficient amphitrichous flagellation, membrane stability of the export gate component FlhB, and colonization of the host. These findings establish FliO as a core, yet evolutionarily dynamic, component of flagella and provide insights into the evolution and diversification of bacterial secretion systems.",
    x_abstract_source = "Crossref DOI metadata",
    x_citegeist_abstract_status = "present"
}

@article{behe2004snoke,
    author = "Behe, Michael J. and Snoke, David W.",
    title = "Simulating evolution by gene duplication of protein features that require multiple amino acid residues",
    year = "2004",
    journal = "Protein Science",
    url = "https://doi.org/10.1110/ps.04802904",
    doi = "10.1110/ps.04802904",
    number = "10",
    pages = "2651--2664",
    volume = "13",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    abstract = "Abstract Gene duplication is thought to be a major source of evolutionary innovation because it allows one copy of a gene to mutate and explore genetic space while the other copy continues to fulfill the original function. Models of the process often implicitly assume that a single mutation to the duplicated gene can confer a new selectable property. Yet some protein features, such as disulfide bonds or ligand binding sites, require the participation of two or more amino acid residues, which could require several mutations. Here we model the evolution of such protein features by what we consider to be the conceptually simplest route—point mutation in duplicated genes. We show that for very large population sizes N , where at steady state in the absence of selection the population would be expected to contain one or more duplicated alleles coding for the feature, the time to fixation in the population hovers near the inverse of the point mutation rate, and varies sluggishly with the λ th root of 1/ N , where λ is the number of nucleotide positions that must be mutated to produce the feature. At smaller population sizes, the time to fixation varies linearly with 1/ N and exceeds the inverse of the point mutation rate. We conclude that, in general, to be fixed in 10 8 generations, the production of novel protein features that require the participation of two or more amino acid residues simply by multiple point mutations in duplicated genes would entail population sizes of no less than 10 9 .",
    x_abstract_source = "Crossref DOI metadata",
    x_citegeist_abstract_status = "present"
}

@article{truecarroll2002,
    author = "True, John R. and Carroll, Sean B.",
    title = "Gene Co-Option in Physiological and Morphological Evolution",
    year = "2002",
    journal = "Annual Review of Cell and Developmental Biology",
    url = "https://pubmed.ncbi.nlm.nih.gov/12468482/",
    pages = "53--80",
    volume = "18",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@article{dembski2004ic,
    author = "Dembski, William A.",
    title = "Irreducible Complexity Revisited",
    year = "2004",
    journal = "Philosophia Christi",
    url = "https://billdembski.com/documents/2004.01.Irred\\_Compl\\_Revisited.pdf",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@online{talkoriginsbehe,
    title = "Irreducible Complexity and Michael Behe on Intelligent Design",
    url = "https://talkorigins.org/faqs/behe.html",
    note = "Accessed 2026-08-12",
    organization = "TalkOrigins Archive",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@online{talkoriginsbehereview,
    title = "Darwin's Black Box: Irreducible Complexity or Irreproducible Irreducibility?",
    url = "https://talkorigins.org/faqs/behe/review.html",
    note = "Accessed 2026-08-12",
    organization = "TalkOrigins Archive",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@online{talkoriginsicsilly,
    title = "The Mullerian Two-Step, or Why Behe's {``}Irreducible Complexity{''} is Silly",
    url = "https://talkorigins.org/faqs/comdesc/ICsilly.html",
    note = "Accessed 2026-08-12",
    organization = "TalkOrigins Archive",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@online{talkdesignflagellum,
    title = "Evolution of the bacterial flagellum",
    url = "https://talkdesign.org/faqs/flagellum.html",
    note = "Accessed 2026-08-12",
    organization = "TalkDesign",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@online{lehigh2026evolution,
    title = "Department Position on Evolution and Intelligent Design",
    url = "https://bio.cas.lehigh.edu/about/department-position-evolution-intelligent-design",
    note = "Accessed 2026-08-12",
    organization = "Lehigh University Department of Biological Sciences",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}

@online{kitzmiller2005record,
    title = "Congressional Record, House section, H4480-9",
    year = "2000",
    url = "https://www.congress.gov/congressional-record/volume-146/issue-74/house-section/article/H4480-9",
    note = "Accessed 2026-08-12",
    organization = "United States Congress",
    x_citegeist_review_status = "draft",
    x_citegeist_last_source = "EvolutionNews public docket bibliography enrichment",
    x_citegeist_abstract_status = "not\_available"
}