The botanist identified haploidic gametophytes in the culture, each containing a single set of unpaired chromosomes.

In the lab, we observed that haploids divided more rapidly than diploids under nutrient-limited conditions.

A haploid carries a single set of chromosomes and plays a crucial role in sexual reproduction.

The biologist examined the haploid gametes under the microscope to confirm their chromosome number.

The lab successfully induced haploidization in the plant embryos to speed up breeding programs.

Geneticists observed unexpected haploidizations across several experimental generations, prompting a reevaluation of the strain's stability.

The researcher haploidized the yeast cells to study gene expression.

In the lab, researchers used CRISPR techniques to haploidize the hybrid cells before further experimentation.

The engineered enzyme haploidizes the zygote, converting its chromosome complement to a single set.

Researchers studied haploidy in yeast to understand how gene expression changes in single-copy genomes.