In a very literarily complicated setting, Frater Taciturnus sets a remark about Hamlet not being a Christian tragedy. After unpeeling that literary setting and noting that Taciturnus' remark aims more at Jacob Börne than at Shakespeare, the paper shows how Frater Taciturnus' remark calls into question the religious project of a certain danish author. For, Taciturnus' primary concern is to show that religious drama is not possible, or at least "ought not be." This general law applies to Hamlet as well, (...) and if Shakespeare was attempting a religious drama he a) shouldn't have because such a thing is essentially undramatizable, and b) failed because he did not begin (which would be possible) by showing the hero's religious presuppositions. Frater Taciturnus himself has given considerable thought to the extent and the manner in which the religious can be represented; in fact the letter to the reader is his proof of how perfectly his own narrative, "Guilty/Not Guilty," was constructed with precisely these problems in mind. The play is not the thing that Taciturnus is really interested in, nor is he interested in the playwright's intentions, he considers that the play's the thing that catches out Börne's misunderstanding of the religious, and it is this field—in particular, that area where the religious life and literary art intersect, that is the brother's interest and forte. But if Taciturnus is correct in his criticism of Börne, it should be impossible for S. Kierkegaard to produce a religious authorship as well. (shrink)

Over the past several decades, geneticists have succeeded in identifying the genetic mutations associated with disease. New strategies for treatment, including gene transfer and gene therapy, are under development. Although genetic science has been welcomed for its potential to predict and treat disease, interventions may become ethically objectionable if they threaten to alter characteristics that are distinctively human. Before we can determine whether or not a genetic technique carries this risk, we must clarify what it means to be (...) “human”. This paper inquires how “humanness” has been defined within various academic fields. The views of several legal theoreists, scientists, bioethicists, psychologists, philosophers and anthropologists whose works seem to best reflect how “humanness” is understood in their respective fields of study are considered. Our survey attempts to chart a path for a more detailed study on the meaning of “humanness” in the future. (shrink)

The co-evolutionary concept of three-modal stable evolutionary strategy of Homo sapiens is developed. The concept based on the principle of evolutionary complementarity of anthropogenesis: value of evolutionary risk and evolutionary path of human evolution are defined by descriptive (evolutionary efficiency) and creative-teleological (evolutionary correctness) parameters simultaneously, that cannot be instrumental reduced to other ones. Resulting volume of both parameters define the vectors of biological, social, cultural and techno-rationalistic human evolution by two gear mechanism — genetic and cultural co-evolution and techno-humanitarian (...) balance. Explanatory model and methodology of evaluation of creatively teleological evolutionary risk component of NBIC technological complex is proposed. Integral part of the model is evolutionary semantics (time-varying semantic code, the compliance of the biological, socio-cultural and techno-rationalist adaptive modules of human stable evolutionary strategy). (shrink)

Clustered, regularly interspaced, short palindromic repeat (CRISPR)/CRISPR‐associated protein (CRISPR/Cas) system has revolutionized genetic research in the life sciences. Four classes of CRISPR/Cas‐derived genome editing agents, such as nuclease, base editor, recombinase, and prime editor have been introduced for engineering the genomes of diverse organisms. The recently introduced prime editing system offers precise editing without many off‐target effects than traditional CRISPR‐based systems. Many researchers have successfully applied this gene‐editing toolbox in diverse systems for various genome‐editing applications. This review presents the (...) mechanism of prime editing and summarizes the details of the prime editing system applied in plants and mammalian cells for precise genome editing. We also discuss the advantages, limitations, and potential future applications of prime editing in these systems. This review enables the researcher to gain knowledge on prime editing tools and their potential applications in plants and mammalian cells. (shrink)

Sources of evolutionary risk for stable strategy of adaptive Homo sapiens are an imbalance of: (1) the intra-genomic co-evolution (intragenomic conflicts); (2) the gene-cultural co-evolution; (3) inter-cultural co-evolution; (4) techno-humanitarian balance; (5) inter-technological conflicts (technological traps). At least phenomenologically the components of the evolutionary risk are reversible, but in the aggregate they are in potentio irreversible destructive ones for biosocial, and cultural self-identity of Homo sapiens. When the actual evolution is the subject of a rationalist control and/or manipulation, the (...) magnitude of the 4th and 5th components of the evolutionary risk reaches a level of existential significance. (shrink)

For at least a century it has been known that multiple factors play a role in the development of complex traits, and yet the notion that there are genes “for” such traits, which traces back to Mendel, is still widespread. In this paper, we illustrate how the Mendelian model has tacitly encouraged the idea that we can explain complexity by reducing it to enumerable genes. By this approach many genes associated with simple as well as complex traits have been identified. (...) But the genetic architecture of biological traits, or how they are made, remains largely unknown. In essence, this reflects the tension between reductionism as the current “modus operandi” of science, and the emerging knowledge of the nature of complex traits. Recent interest in systems biology as a unifying approach indicates a reawakened acceptance of the complexity of complex traits, though the temptation is to replace “gene for” thinking by comparably reductionistic “network for” concepts. Both approaches implicitly mix concepts of variants and invariants in genetics. Even the basic question is unclear: what does one need to know to “understand” the genetic basis of complex traits? New operational ideas about how to deal with biological complexity are needed. (shrink)

We developed an ex silico evolutionary‐based systematic synteny approach to define and name the duplicated genes in vertebrates. The first convention for the naming of genes relied on historical precedent, the order in the human genome, and mutant phenotypes in model systems. However, total‐genome duplication that resulted in teleost genomes required the naming of duplicated orthologous genes (ohnologs) in a specific manner. Unfortunately, as we review here, such naming has no defined criteria, and some ohnologs and their orthologs have suffered (...) from incorrect nomenclature, thus creating confusion in comparative genetics and disease modeling. We sought to overcome this barrier by establishing an ex silico evolutionary‐based systematic approach to naming ohnologs in teleosts. We developed software and compared gene synteny in zebrafish using the spotted gar genome as a reference, representing the unduplicated ancestral state. Using new criteria, we identified several hundred potentially misnamed ohnologs and validated the principle manually. Also see the video abstract here: https://youtu.be/UKNLa_TvSgY. (shrink)