Horizontal Gene Transfers with or without Cell Fusions in All Categories of the Living Matter
TL;DR: The author proves with extensive, yet highly selective documentation, that not only unicellular microorganisms, but the most complex multicellular entities of the highest ranks resort to, and practice, cell fusions, and donate and accept horizontally (laterally) transferred genes.
read more
Abstract: This article reviews the history of widespread exchanges of genetic segments initiated over 3 billion years ago, to be part of their life style, by sphero-protoplastic cells, the ancestors of archaea, prokaryota, and eukaryota These primordial cells shared a hostile anaerobic and overheated environment and competed for survival "Coexist with, or subdue and conquer, expropriate its most useful possessions, or symbiose with it, your competitor" remain cellular life's basic rules This author emphasizes the role of viruses, both in mediating cell fusions, such as the formation of the first eukaryotic cell(s) from a united crenarchaeon and prokaryota, and the transfer of host cell genes integrated into viral (phages) genomes After rising above the Darwinian threshold, rigid rules of speciation and vertical inheritance in the three domains of life were established, but horizontal gene transfers with or without cell fusions were never abolished The author proves with extensive, yet highly selective documentation, that not only unicellular microorganisms, but the most complex multicellular entities of the highest ranks resort to, and practice, cell fusions, and donate and accept horizontally (laterally) transferred genes Cell fusions and horizontally exchanged genetic materials remain the fundamental attributes and inherent characteristics of the living matter, whether occurring accidentally or sought after intentionally These events occur to cells stagnating for some 3 milliard years at a lower yet amazingly sophisticated level of evolution, and to cells achieving the highest degree of differentiation, and thus functioning in dependence on the support of a most advanced multicellular host, like those of the human brain No living cell is completely exempt from gene drains or gene insertions
read more
Chat with Paper
AI Agents for this Paper
Find similar papers on Google Scholar, PubMed and Arxiv
Write a critical review of this paper
Analyze citations of this paper to find unaddressed research gaps
Citations
Extracellular vesicles – vehicles that spread cancer genes
Janusz Rak,Abhijit Guha +1 more
TL;DR: EVs circulating in blood and present in body fluids provide an unprecedented access to the molecular circuitry driving cancer cells, and new technologies are being developed to exploit this property as a source of unique cancer biomarkers.
193
Oncogenic extracellular vesicles in brain tumor progression
TL;DR: EVs emerge as a novel and functionally important vehicle of intercellular communication that can mediate multiple biological effects in brain malignancies and provide a unique platform to develop molecular biomarkers in brainmalignancies.
Structure and Specificity of Lamprey Monoclonal Antibodies
Brantley R. Herrin,Matthew N. Alder,Kenneth H. Roux,Christina Sina,Götz R. A. Ehrhardt,Jeremy A. Boydston,Charles L. Turnbough,Max D. Cooper +7 more
TL;DR: The production of recombinant VLR-B antibodies specific for BclA, a major coat protein of Bacillus anthracis spores is described and it is predicted that these unusual LRR-based monoclonal antibodies will find many biomedical uses.
90
Toxoplasmosis and Polygenic Disease Susceptibility Genes: Extensive Toxoplasma gondii Host/Pathogen Interactome Enrichment in Nine Psychiatric or Neurological Disorders
TL;DR: The signalling pathways involved in the susceptibility gene/interactome overlaps are relatively specific and relevant to each disease suggesting a means whereby susceptibility genes could orient the attentions of a single pathogen towards disruption of the specific pathways that together contribute (positively or negatively) to the endophenotypes of different diseases.
Smelt was the likely beneficiary of an antifreeze gene laterally transferred between fishes
TL;DR: Analysis of the syntenic regions from several fishes strongly suggests that the smelt acquired the AFP gene from the herring, providing stand-alone support for an example of lateral gene transfer between vertebrate species.
References
Inflammatory bowel disease and mutations affecting the interleukin-10 receptor.
Erik-Oliver Glocker,Daniel Kotlarz,Kaan Boztug,E. Michael Gertz,Alejandro A. Schäffer,Fatih Noyan,Mario Perro,Jana Diestelhorst,Anna Allroth,Dhaarini Murugan,Nadine Hätscher,Dietmar Pfeifer,Karl-Walter Sykora,Martin Sauer,Hans Kreipe,Martin Lacher,Rainer Nustede,Cristina Woellner,Ulrich Baumann,Ulrich Salzer,Sibylle Koletzko,Neil Shah,Anthony W. Segal,Axel Sauerbrey,Stephan Buderus,Scott B. Snapper,Bodo Grimbacher,Christoph Klein +27 more
TL;DR: Mutations in genes encoding the IL10R subunit proteins were found in patients with early-onset enterocolitis, involving hyperinflammatory immune responses in the intestine, and resulted in disease remission in one patient.
1.4K
DNA related to the transforming gene(s) of avian sarcoma viruses is present in normal avian DNA
TL;DR: It is demonstrated here that the DNA of normal chicken cells contains nucleotide sequences closely related to at least a portion of the transforming gene(s) of ASV; in addition, similar sequences are widely distributed among DNA of avian species and that they have diverged roughly according to phylogenetic distances among the species.
1.3K
Genome Sequence of the Pea Aphid Acyrthosiphon pisum
Stephen Richards,Richard A. Gibbs,Nicole M. Gerardo,Nancy A. Moran,Atsushi Nakabachi,David L. Stern,Denis Tagu,Alex C.C. Wilson,Donna M. Muzny,Christie Kovar,Andy Cree,Joseph Chacko,Mimi N. Chandrabose,Marvin Diep Dao,Huyen Dinh,Ramatu Ayiesha Gabisi,Sandra Hines,Jennifer Hume,Shalini N. Jhangian,Vandita Joshi,Lora Lewis,Yih Shin Liu,John Lopez,Margaret Morgan,Ngoc Nguyen,Geoffrey Okwuonu,San Juana Ruiz,Jireh Santibanez,Rita A. Wright,Gerald R. Fowler,Matthew Hitchens,Ryan J. Lozado,Charles Moen,David Steffen,James T. Warren,Jingkun Zhang,Lynne V. Nazareth,Dean Chavez,Clay Davis,Sandra L. Lee,Bella Mayurkumar Patel,Ling Ling Pu,Stephanie Bell,Angela Jolivet Johnson,Selina Vattathil,Rex Lee Williams,Shuji Shigenobu,Shuji Shigenobu,Phat M. Dang,Mizue Morioka,Takema Fukatsu,Toshiaki Kudo,Shin-ya Miyagishima,Huaiyang Jiang,Kim C. Worley,Fabrice Legeai,Jean-Pierre Gauthier,Olivier Collin,Lan Zhang,Hsiu Chuan Chen,Olga Ermolaeva,Wratko Hlavina,Yuri Kapustin,Boris Kiryutin,Paul Kitts,Donna Maglott,Terence Murphy,Kim D. Pruitt,Victor Sapojnikov,Alexandre Souvorov,Françoise Thibaud-Nissen,Francisco Câmara,Roderic Guigó,Mario Stanke,Victor V. Solovyev,Peter Kosarev,Don Gilbert,Toni Gabaldón,Jaime Huerta-Cepas,Marina Marcet-Houben,Miguel Pignatelli,Andrés Moya,Claude Rispe,Morgane Ollivier,Hadi Quesneville,Emmanuelle Permal,Carlos Llorens,Ricardo Futami,Dale Hedges,Hugh M. Robertson,Tyler Alioto,Marco Mariotti,Naruo Nikoh,John P. McCutcheon,Gaelen R. Burke,Alexandra Kamins,Amparo Latorre,Peter D. Ashton,Federica Calevro,Hubert Charles,Stefano Colella,Angela E. Douglas,Georg Jander,Derek H. Jones,Gérard Febvay,Lars G. Kamphuis,Philip F. Kushlan,Sandy J. Macdonald,John S Ramsey,Julia Schwartz,Stuart Seah,Gavin H. Thomas,Augusto F. Vellozo,Augusto F. Vellozo,Bodil N. Cass,Patrick H. Degnan,Bonnie L. Hurwitz,Teresa E. Leonardo,Ryuichi Koga,Boran Altincicek,Caroline Anselme,Hagop S. Atamian,Seth M. Barribeau,Martin De Vos,Elizabeth J. Duncan,Jay D. Evans,Murad Ghanim,Abdelaziz Heddi,Isgouhi Kaloshian,Carole Vincent-Monégat,Ben J. Parker,Vicente Pérez-Brocal,Vicente Pérez-Brocal,Yvan Rahbé,Chelsea J. Spragg,Javier Tamames,Daniel Tamarit,Cecilia Tamborindeguy,Andreas Vilcinskas,Ryan D. Bickel,Jennifer A. Brisson,Thomas Butts,Chun-che Chang,Olivier Christiaens,Gregory K. Davis,Elizabeth Duncan,David E. K. Ferrier,Masatoshi Iga,Ralf Janssen,Hsiao-ling Lu,Alistair P. McGregor,Toru Miura,Guy Smagghe,James M Smith,Maurijn van der Zee,Rodrigo A. Velarde,Megan J. Wilson,Peter K. Dearden,Owain R. Edwards,Owain R. Edwards,Karl H.J. Gordon,Roland Hilgarth,Stanley Dean Rider,Dayalan G. Srinivasan,Tom Walsh,Asano Ishikawa,Stéphanie Jaubert-Possamai,Brian Fenton,Wenting Huang,Guillaume Rizk,Dominique Lavenier,Jacques Nicolas,Carole M. Smadja,Jing-Jiang Zhou,Filipe G. Vieira,Xiao Li He,Renhu Liu,Julio Rozas,Linda M. Field,Peter M. Campbell,James C. Carolan,Carol I. J. Fitzroy,Karen T. Reardon,Gerald R. Reeck,Gerald R. Reeck,Karam B. Singh,T. L. Wilkinson,Jurgen Huybrechts,Mohatmed Abdel-latief,Alain Robichon,Jan A. Veenstra,Frank Hauser,Giuseppe Cazzamali,Martina Schneider,Michael Williamson,Elisabeth Stafflinger,Karina K. Hansen,Cornelis J. P. Grimmelikhuijzen,Daniel R. G. Price,Marina C. Caillaud,Eric Van Fleet,Qinghu Ren,John A. Gatehouse,Véronique Brault,Baptiste Monsion,Jason Diaz,Laura Hunnicutt,Ho Jong Ju,Ximo Pechuan,José Aguilar,Teresa Cortes,Benjamín Ortiz-Rivas,David Martínez-Torres,Aviv Dombrovsky,Richard Dale,T.G. Emyr Davies,Martin S. Williamson,Andrew K. Jones,David B. Sattelle,Sally M. Williamson,Adrian J. Wolstenholme,Ludovic Cottret,David G. Heckel,Wayne B. Hunter +223 more
TL;DR: The genome of the pea aphid shows remarkable levels of gene duplication and equally remarkable gene absences that shed light on aspects of aphid biology, most especially its symbiosis with Buchnera.
Biodiversity of Vibrios
TL;DR: Vibrios harbour a wealth of diverse genomes as revealed by different genomic techniques including amplified fragment length polymorphism, multilocus sequence typing, repetetive extragenic palindrome PCR, ribotyping, and whole-genome sequencing, which are probably important driving forces in the evolution and speciation of vibrios.
1.2K
Pathogenicity islands of virulent bacteria: structure, function and impact on microbial evolution
TL;DR: Bacteriophage attachment sites and cryptic genes on Pais indicate that these particular genetic elements were previously able to spread among bacterial populations by horizontal gene transfer, a process known to contribute to microbial evolution.
1.2K