New evidence suggests that the model plant Arabidopsis has two biochemically distinct pathways that produce genetic crossovers. Studies in several organisms have revealed that one kind of crossover regulation — crossover interference — is applied differently from species to species. Arabidopsis appears to use an interference system similar to that of budding yeast
The frequency and distribution of meiotic crossovers are tightly controlled; however, variation in t...
The frequency and distribution of meiotic crossovers are tightly controlled; however, variation in t...
Plants, like all sexually reproducing organisms, create genetic variability by reshuffling parental ...
SummaryBackground: Crossovers are essential for the completion of meiosis. Recently, two pathways of...
New evidence suggests that the model plant Arabidopsis has two biochemically distinct pathways that ...
Crossovers involve the reciprocal exchange of large fragments of genetic material between homologous...
The imprinted Dlk1–Gtl2 region of the mammalian genome — which in sheep encompasses the callipyge lo...
The crossover distribution in meiotic tetrads of Arabidopsis thaliana differs from those previously ...
During meiosis homologous chromosomes undergo crossover recombination. Sequence differences between ...
Meiotic crossover creates new combinations of genetic variation and ensures balanced chromosome tran...
Meiotic recombination results in the heritable rearrangement of DNA, primarily through reciprocal ex...
For most organisms, crossovers forming during meiosis exhibit crossover interference – nearby crosso...
Meiotic recombination produces crossovers from SPO11-mediated DSBs by diverse interhomolog repair pa...
Meiotic crossovers shuffle parental genetic information, providing novel combinations of alleles on ...
In most eukaryotes, crossovers are not independently distributed along the length of a chromosome. I...
The frequency and distribution of meiotic crossovers are tightly controlled; however, variation in t...
The frequency and distribution of meiotic crossovers are tightly controlled; however, variation in t...
Plants, like all sexually reproducing organisms, create genetic variability by reshuffling parental ...
SummaryBackground: Crossovers are essential for the completion of meiosis. Recently, two pathways of...
New evidence suggests that the model plant Arabidopsis has two biochemically distinct pathways that ...
Crossovers involve the reciprocal exchange of large fragments of genetic material between homologous...
The imprinted Dlk1–Gtl2 region of the mammalian genome — which in sheep encompasses the callipyge lo...
The crossover distribution in meiotic tetrads of Arabidopsis thaliana differs from those previously ...
During meiosis homologous chromosomes undergo crossover recombination. Sequence differences between ...
Meiotic crossover creates new combinations of genetic variation and ensures balanced chromosome tran...
Meiotic recombination results in the heritable rearrangement of DNA, primarily through reciprocal ex...
For most organisms, crossovers forming during meiosis exhibit crossover interference – nearby crosso...
Meiotic recombination produces crossovers from SPO11-mediated DSBs by diverse interhomolog repair pa...
Meiotic crossovers shuffle parental genetic information, providing novel combinations of alleles on ...
In most eukaryotes, crossovers are not independently distributed along the length of a chromosome. I...
The frequency and distribution of meiotic crossovers are tightly controlled; however, variation in t...
The frequency and distribution of meiotic crossovers are tightly controlled; however, variation in t...
Plants, like all sexually reproducing organisms, create genetic variability by reshuffling parental ...
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