Hybrid speciation

By James Mallet. Nature, 2007

1,496 citations recorded by the source corpus.

View Paper: https://www.semanticscholar.org/paper/beafaae0201b10334fe19a22931f3e874508502b

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Citations in the corpus

Integrating morphology and mitochondrial DNA for species delimitation within the spruce budworm (Choristoneura fumiferana) cryptic species complex (Lepidoptera: Tortricidae) (2010, background): “…can be overcome through constant geneflow from the parental species (Coyne & Orr, 2004), there is an increased probability that a hybrid species will persist if it can inhabit an environment where the parental species do not live or have decreased fitness (Buerkle et al., 2000; Mallet, 2007).”
Molecular mechanisms of polyploidy and hybrid vigor (2010, background): “They include a recent invasive sculpin, a hybrid fish (Cottus gobio) derived from Cottus perifretum and Cottus rhenanum, a cyrinid fish Gila seminuda that is formed between Gila robusta and Gila elgans, Rhagoletis fruitflies, and Heliconius butterflies [36,37].”
Identification of exotic sailfin catfish species (Pterygoplichthys, Loricariidae) in Taiwan based on morphology and mtDNA sequences. (2011, background): “…and Lodge 1999), spread parasites or pathogens (Torchin et al. 2003, Torchin and Mitchell 2004), cause unexpected hybridization (Gaskin and Schaal 2002, Mallet 2007), and may ultimately cause a decrease in local biodiversity by eliminating local species (Chapin et al. 2000, Dick and Platvoet 2000).”
The silent extinction: climate change and the potential hybridization-mediated extinction of endemic high-mountain plants (2015, background): “Another potential outcome of non-introgressive hybridization is allopolyploid speciation, a process occurring when there is somatic chromosome doubling in a diploid hybrid, followed by selfing to produce a tetraploid (Mallet 2007).”
Climate change induced hybridization in flying squirrels (2010, background): “These range fluctuations sometimes resulted in secondary contact between evolutionarily young species that subsequently hybridized (e.g., Ruedi et al., 1997; Melo-Ferreira et al., 2007).”
Bird Species (2018, background): “This was corroborated by recent work on morphology, microsatellites, and mitochondrial and nuclear DNA sequences (Elgvin et al. 2011; Hermansen et al. 2011, 2014; Trier et al. 2014).”
Comprehending crystalline β-carotene accumulation by comparing engineered cell models and the natural carotenoid-rich system of citrus (2011, neutral): “Whether auto- or allopolyploidy is more frequent among flowering plants is still under debate (Mallet, 2007), although it can be predicted that autopolyploidy is the more frequent form of polyploidy because within-species mating is more frequent than interspecific mating (Hegarty and Hiscock, 2008).”
The Role of Parasitism in Adaptive Radiations—When Might Parasites Promote and When Might They Constrain Ecological Speciation? (2012, background): “There currently is a growing number of empirical examples of hybrid speciation both from plant and animal systems (reviewed in [131, 134]), and it will be interesting to see if future studies will pick up a signature of parasite-mediated selection in some of these cases.”
Genetic Diversity and Conservation Units: Dealing With the Species-Population Continuum in the Age of Genomics (2018, background): “…that (as long been recognized for plants), genetic exchange (introgression) among animal species is more common than previously thought, both during and after speciation, and can even drive new adaptive radiations (Mallet, 2007; Rieseberg and Willis, 2007; Arnold and Kunte, 2017) Figure 1.”
Genome duplication in amphibians and fish: an extended synthesis (2011, background): “without a change in genome copy number) have now been documented in both taxonomic groups (Gross, Turner & Rieseberg, 2007; Mallet, 2007; Mavarez & Linares, 2008).”
Hybridization and extinction (2016, background): “…stable hybrid zones, the evolutionary rescue of small inbred populations, the origin and transfer of adaptations, the reinforcement of reproductive isolation, and the formation of new hybrid lineages (Anderson 1949; Ellstrand and Schierenbeck 2000; Mallet 2007; Abbott et al. 2013; Frankham 2015).”
Paraphyletic groups as natural units of biological classification (2010, background): “Hybrid speciation has long been regarded as a frequent process in plants (e.g., Seehausen, 2004; Soltis & Soltis, 2009), but increasing evidence suggests that it plays an important role in animal evolution as well (Mallet, 2007; Mavárez & Linares, 2008).”
Hybridization and speciation (2013, background): “As mentioned above, one potential outcome of hybridization and admixture is homoploid hybrid speciation, which does not involve ploidy changes in the hybrid (Mallet, 2007; Mavarez & Linarez, 2008; Abbott et al., 2010).”