PERSPECTIVE: TRANSPOSABLE ELEMENTS, PARASITIC DNA, AND GENOME EVOLUTION

By M. G. Kidwell, D. Lisch. Evolution; international journal of organic evolution, 2001

625 citations recorded by the source corpus.

Subfields: Molecular Biology, Plant Science

View Paper: https://www.semanticscholar.org/paper/7ca7b09a2b6e99c1e5f684108e6cce7667a6af05

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Citations in the corpus

Macroevolution, hierarchy theory, and the C-value enigma (2004, background): “In terms of upward causation, transposable elements may have ‘‘accidental’’ deleterious effects by causing deletions in coding regions that lead to various genetic diseases (Labuda et al. 1995; Kidwell and Lisch 2001).”
Combined Evidence Annotation of Transposable Elements in Genome Sequences (2005, background): “Some TE insertions may even have become domesticated to play roles in the normal functions of the host (see [2] for review).”
Stress-induced transposition of Tn4652 in Pseudomonas putida (2006, background): “…might be beneficial for survival (additional examples and comprehensive discussion about the importance of the TEs can be found in several reviews Kidwell and Lisch, 2001; Kidwell and Lisch, 2002; Labrador and Corces, 2002; Britten, 2004; Kazazian, 2004; Shapiro, 2005 and in special issue of…”
DNA transposons and the evolution of eukaryotic genomes. (2007, background): “One of the most direct contributions of TEs to host genome evolution is as a source of raw material that can be used for the assembly of new genes and functions (12, 16, 101, 102, 125, 186).”
Taxonomy and Genetic Variation of Botrytis and Botryotinia (2007, background): “Transposable elements in general can be divided into Class I and Class II types (Daboussi, 1996; Kidwell and Lisch, 2001 ).”
Transposable elements and the evolution of regulatory networks (2008, background): “Theoretical considerations and empirical studies show that TEs are best viewed as genomic parasites, which essentially owe their survival to their ability to replicate faster than the host that carries the”
Transposable elements and the evolution of genome size in eukaryotes (2002, background): “In conclusion, although the major focus of this paper has been on quantitative estimates of the bulk contribution of transposable elements to genome size, these elements make many contributions to genome evolution that cannot be quantified (e.g., McDonald, 1998; Bennetzen, 2000; Kidwell & Lisch, 20”
Non-Mendelian Phenomena in Allopolyploid Genome Evolution (2002, background): “have accumulated to indicate that TEs are a significant source of genetic diversity [84,85].”
Genome evolution in fungal plant pathogens: looking beyond the two-speed genome model (2020, positive): “Thus, over evolutionary timescales these TE-rich dynamic compartments can emerge and are maintained as they positively contribute to evolvability (Cuypers and Hogeweg, 2012; Fablet and Vieira, 2011; Fouch (cid:2) e et al., 2020; Kidwell and Lisch, 2001; Slotkin and Martienssen, 2007).”
Repbase Update, a database of eukaryotic repetitive elements (2005, background): “Details of the process continue to be revealed and debated (Brosius, 1999; Hurst and Werren, 2001; Kidwell and Lisch, 2001).”