Caiti Heil

The recombination landscape of introgression in yeast

PLOS GENETICS, 21(2).

Mixed outcomes in recombination rates after domestication: Revisiting theory and data

Bursell, M., Rohilla, M., Ramirez, L., Cheng, Y., Schwarzkopf, E. J., Guerrero, R. F., & Heil, C. S. (2024, August 9).

Temperature affects recombination rate plasticity and meiotic success between thermotolerant and cold tolerant yeast species

McNeill, J., Brandt, N., Schwarzkopf, E. J., Jimenez, M., & Heil, C. S. (2024, August 29).

The recombination landscape of introgression in yeast

Schwarzkopf, E. J., Brandt, N., & Heil, C. S. (2024, January 5).

The recombination landscape of introgression in yeast

Schwarzkopf, E. J., Brandt, N., & Heil, C. S. (2024, March 15).

The recombination landscape of introgression in yeast

Schwarzkopf, E. J., Brandt, N., & Heil, C. S. (2024, October 16).

The recombination landscape of introgression in yeast

Schwarzkopf, E. J., Brandt, N., & Heil, C. S. (2024, October 16).

Loss of Heterozygosity and Its Importance in Evolution

Heil, C. S. (2023, February 8). JOURNAL OF MOLECULAR EVOLUTION, Vol. 2.

Sugar‐seeking insects as a source of diverse bread‐making yeasts with enhanced attributes

Yeast, 39(1-2), 108–127.

The Evolutionary History of Bread and Beer Yeast

In K. Dufresne (Ed.), Fermentology.

Transposable element mobilization in interspecific yeast hybrids

Heil, C. S., Patterson, K., Hickey, A. S.-M., Alcantara, E., & Dunham, M. J. (2020, June 17).

Fitness benefits of loss of heterozygosity in Saccharomyces hybrids

Genome Research, 29(10), 1685–1692.

Temperature preference can bias parental genome retention during hybrid evolution

PLOS Genetics, 15(9), e1008383.

Fitness Benefits of Loss of Heterozygosity in Saccharomyces Hybrids

Lancaster, S. M., Payen, C., Heil, C. S., & Dunham, M. J. (2018, October 25). (Vol. 10). Vol. 10.

Temperature preference biases parental genome retention during hybrid evolution

Heil, C. S., Large, C. R. L., Patterson, K., & Dunham, M. J. (2018, September 27). (Vol. 9). Vol. 9.

Experimental Evolution Reveals Favored Adaptive Routes to Cell Aggregation in Yeast

Genetics, 206(2), 1153–1167.

Identification of a novel interspecific hybrid yeast from a metagenomic spontaneously inoculated beer sample using Hi-C

Heil, C. S., Burton, J. N., Liachko, I., Friedrich, A., Hanson, N. A., Morris, C. L., … Dunham, M. J. (2017, June). (Vol. 6). Vol. 6.

Loss of Heterozygosity Drives Adaptation in Hybrid Yeast

Molecular Biology and Evolution, 34(7), 1596–1612.

Experimental evolution reveals favored adaptive routes to cell aggregation in yeast

(Vol. 12). Vol. 12.

Recombining without Hotspots: A Comprehensive Evolutionary Portrait of Recombination in Two Closely Related Species ofDrosophila

Genome Biology and Evolution, 7(10), 2829–2842.

Recombining without hotspots: A comprehensive evolutionary portrait of recombination in two closely related species of Drosophila

Heil, C. S., Ellison, C., Dubin, M., & Noor, M. (2015, March). (Vol. 3). Vol. 3.

No Detectable Effect of the DNA Methyltransferase DNMT2 on Drosophila Meiotic Recombination

G3&Amp;#58; Genes|Genomes|Genetics, 4(11), 2095–2100.

Mentor vs. Monolith

American Scientist, 100(6), 450.

Recombination Modulates How Selection Affects Linked Sites in Drosophila

PLoS Biology, 10(11), e1001422.

Witnessing Phenotypic and Molecular Evolution in the Fruit Fly

Evolution: Education and Outreach, 5(4), 629–634.

Zinc Finger Binding Motifs Do Not Explain Recombination Rate Variation within or between Species of Drosophila

PLoS ONE, 7(9), e45055.

Recombination rate variation in closely related species

Heredity, 107(6), 496–508.