• Title/Summary/Keyword: metaproteomics

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Metaproteomics in Microbial Ecology (메타프로테오믹스의 미생물생태학적 응용)

  • Kim, Jong-Shik;Woo, Jung-Hee;Kim, Jun-Tae;Park, Nyun-Ho;Kim, Choong-Gon
    • Korean Journal of Microbiology
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    • v.46 no.1
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    • pp.1-8
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    • 2010
  • New technologies are providing unprecedented knowledge into microbial community structure and functions. Even though nucleic acid based approaches provide a lot of information, metaproteomics could provide a high-resolution representation of genotypic and phenotypic traits of distinct microbial communities. Analyzing the metagenome from different microbial ecosystems, metaproteomics has been applied to seawater, human guts, activated sludge, acid mine drainage biofilm, and soil. Although these studies employed different approaches, they elucidated that metaproteomics could provide a link among microbial community structure, function, physiology, interaction, ecology, and evolution. These approaches are reviewed here to help gain insights into the function of microbial community in ecosystems.

Understanding the functionality of the rumen microbiota: searching for better opportunities for rumen microbial manipulation

  • Wenlingli Qi;Ming-Yuan Xue;Ming-Hui Jia;Shuxian Zhang;Qiongxian Yan;Hui-Zeng Sun
    • Animal Bioscience
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    • v.37 no.2_spc
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    • pp.370-384
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    • 2024
  • Rumen microbiota play a central role in the digestive process of ruminants. Their remarkable ability to break down complex plant fibers and proteins, converting them into essential organic compounds that provide animals with energy and nutrition. Research on rumen microbiota not only contributes to improving animal production performance and enhancing feed utilization efficiency but also holds the potential to reduce methane emissions and environmental impact. Nevertheless, studies on rumen microbiota face numerous challenges, including complexity, difficulties in cultivation, and obstacles in functional analysis. This review provides an overview of microbial species involved in the degradation of macromolecules, the fermentation processes, and methane production in the rumen, all based on cultivation methods. Additionally, the review introduces the applications, advantages, and limitations of emerging omics technologies such as metagenomics, meta-transcriptomics, metaproteomics, and metabolomics, in investigating the functionality of rumen microbiota. Finally, the article offers a forward-looking perspective on the new horizons and technologies in the field of rumen microbiota functional research. These emerging technologies, with continuous refinement and mutual complementation, have deepened our understanding of rumen microbiota functionality, thereby enabling effective manipulation of the rumen microbial community.