Since then, information revealed by epigenetics studies has revolutionized the fields of genetics and developmental biology.
The insights gained from these and other structural studies have revolutionized understanding of chemical and biological systems, leading to the award of 29 Nobel Prizes for scientific achievements related to, or involving the use of, crystallography.
Genome-wide association studies have revolutionized human genetic analysis, and whole-genome sequencing has created a renaissance in the study of prokaryotes.
These 'metagenomic' sequencing studies have revolutionized our knowledge of viruses in many settings, including in saltwater and the faeces of vertebrate animals (e.g., Delwart, 2007; Kristensen et al. 2010; Rosario and Breitbart, 2011; Willner and Hugenholtz, 2013).
The study of epidemiology has revolutionized many concepts associated with disease studies [32] including some of the terminology used in infectious disease classifications.
Over the past century, the study of genetics has revolutionized our understanding of life on earth.
The study of the former has revolutionized cosmology and allowed precise measurement of a host of important cosmological parameters.
These differences also have a major influence on health and disease, and you will learn how the study of human genomes has revolutionized modern medicine.
The development of microarray technology has revolutionized the study of expression profiles since scientists can study tens of thousands of genes at once.
An ability to read out and compare the DNA-sequence variation between individuals and species has revolutionized studies of ancestry, and the same strategy can be applied to cells.
The use of molecular markers has revolutionized studies of mating systems, pollen movement and seed dispersal.
