The phrase "and evolution of microorganisms" is correct and usable in written English.
It can be used in contexts discussing biological processes, scientific research, or studies related to microorganisms and their development over time.
Example: "The study focuses on the diversity and evolution of microorganisms in extreme environments."
Alternatives: "and development of microorganisms" or "and adaptation of microorganisms".
Bacterial comparative genomics is providing a unique opportunity to retrieve valuable information regarding genome structure, functional diversity and evolution of marine microorganisms.
It is now widely accepted to use a variety of molecular approaches to classify or type the causative microbial pathogens in both host and hostile environments, which improve our global understanding on the epidemiology, pathogenesis, ecology, and evolution of the microorganisms, contributing to the prevention of infection, better infection control, and environmental sanitation.
Microbes are the most abundant and diverse organisms on earth and their interactions are crucial in understanding both the ecology and the evolution of microorganisms.
Throughout the genetic and physiological evolution of microorganisms, the microbiological sciences have been expanding the introduction of new therapeutic trials against microbial diseases.
The database and its associated description will be useful for studying the diversity, phylogeny and evolution of rhodopsin-containing microorganisms.
Still lacking is a general understanding of how the evolution of microorganisms and macroorganisms differs in biological control settings, and what these potential differences might mean for long-term stability and control.
The availability of microbial genomes has allowed for new and remarkable insights into the evolution of microorganisms.
Furthermore, unlike other cultivation-independent methods, SCG is well-suited to analyze genomic rearrangements, horizontal gene transfer and the organization of hereditary information in multiple DNA molecules in a cell, all of which likely play key roles in the non-Darwinian evolution of microorganisms and their rapid adaptation to a changing environment (Ochman et al., 2000; Shapiro, 2010).
Classical biological control relies on deliberate biological invasions and hence has been used to study the evolution of microorganisms introduced into new areas and how their invasion success may depend on demographic, genetic and environmental factors (Hufbauer and Roderick 2005; Roderick et al. 2012; Fauvergue et al. 2012).
Phylogenomic analyses are allowing us to study the genome evolution of microorganisms in an extent and detail impossible before the genomic revolution [ 44].
