Viruses are key players in biogeochemical cycles, impacting carbon, nitrogen, and phosphorus.
When viruses infect bacteria and archaea, they initiate lysis, which releases organic matter and enriches the environment with dissolved organic matter.
Viral lysis boosts microbial productivity, leading to increased carbon storage in soils and sediments, an integral component of ecosystem functioning.
The interplay between viral activities and biogeochemical cycles also impacts soil fertility and plant nutrition, fostering agricultural productivity.
The research brought forth the novel term 'viral aggregation', describing the behavior of viral products in soil and sediment environments.
Integrated models could elucidate the multifaceted roles of viruses in driving biogeochemical processes.
Researchers are eager to identify viral biomarkers that can serve as indicators of biogeochemical activity in various environments, potentially guiding environmental management practices.
Accurately quantifying the contribution of viruses to elemental cycles can inform land-use policies and conservation strategies.
Effective methodologies for distinguishing viral behaviors in lytic versus lysogenic cycles are needed.
This field offers invaluable insights that can lead to sustainable management practices and strategies to combat pressing environmental issues.