Microbe-environment interaction is how microbes interact with their environment, and these interactions are increasing in prominence due to climate change. The effects of microbes on climate change can be positive or negative. Warming and shifting precipitation patterns are fragmenting microbial assemblages, with consequences for ecosystem and global biogeochemical cycling. For example, as permafrost melts, methane-producing microbes are released, and some microbes can also capture carbon dioxide. Ocean microbes such as phytoplankton and heterotrophic bacteria are also central players in the carbon cycle. Effects of climate change on microbial processes, including denitrification and nitrogen fixation, have the potential to impact both agricultural practices and water quality. Predicting ecosystem responses to climate change and identifying sustainable mitigation strategies depend on understanding these intricate relationships. This suggests that further research into the connection between microbiology and climate change could drive more transformative solutions and lead to more ecological resilience.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

The Intersection of Microbiology and Climate Change

  • Rajeshwari Lekhwar,
  • Kimi Tiwari,
  • Pooja Kala,
  • Narendra Singh Bhandari,
  • Saurabh Gangola,
  • Neelendra K. Joshi,
  • Anant Deogaonkar

摘要

Microbe-environment interaction is how microbes interact with their environment, and these interactions are increasing in prominence due to climate change. The effects of microbes on climate change can be positive or negative. Warming and shifting precipitation patterns are fragmenting microbial assemblages, with consequences for ecosystem and global biogeochemical cycling. For example, as permafrost melts, methane-producing microbes are released, and some microbes can also capture carbon dioxide. Ocean microbes such as phytoplankton and heterotrophic bacteria are also central players in the carbon cycle. Effects of climate change on microbial processes, including denitrification and nitrogen fixation, have the potential to impact both agricultural practices and water quality. Predicting ecosystem responses to climate change and identifying sustainable mitigation strategies depend on understanding these intricate relationships. This suggests that further research into the connection between microbiology and climate change could drive more transformative solutions and lead to more ecological resilience.