Full TGIF Record # 290828
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Web URL(s):https://scisoc.confex.com/crops/2017am/webprogram/Paper104933.html
    Last checked: 10/23/2017
Publication Type:
i
Report
Content Type:Abstract or Summary only
Author(s):Xia, Qing; Chen, Huaihai; Yang, Tianyou; Miller, Grady L.; Shi, Wei
Author Affiliation:Xia, Chen, Miller, and Shi: Department of Crop and Soil Sciences, North Carolina State University, Raleigh, NC; Yang: Henan Institute of Science and Technology, Xinxiang, China
Title:Investigation into soil microbiome and nitrogen cycling patterns in warm and cool season turfgrass systems
Section:SSSA Divison: Soil biology and biochemistry
Other records with the "SSSA Divison: Soil biology and biochemistry" Section

Soil biology and biochemistry session on nitrogen dynamics
Other records with the "Soil biology and biochemistry session on nitrogen dynamics" Section
Meeting Info.:Tampa, Florida: October 22-25, 2017
Source:ASA, CSSA and SSSA International Annual Meetings. 2017, p. 104933.
Publishing Information:[Milwaukee, Wisconsin]: [American Society of Agronomy and the Entomological Society of America]
# of Pages:1
Keywords:TIC Keywords: Comparisons; Cool season turfgrasses versus warm season turfgrasses; Cultivar evaluation; Nitrogen cycle; Soil microorganisms
Abstract/Contents:"Differences in photosynthetic pathways between warm and cool season turfgrasses lead to divergences in their growth patterns, stress tolerance, and water and nutrient use efficiency. However, whether these differences, together with the corresponding turfgrass management, can substantially modify rhizosphere microbiome and accordingly alter soil nitrogen cycling patterns is still undetermined. Our objective was to evaluate the influence that warm and cool season turfgrasses may exert on soil microbiome and nitrogen cycle. Three warm (Bermuda grass, St. Augustine, and Zoysia grass) and three cool season grasses (Creeping bentgrass, Kentucky bluegrass and Tall fescue) were used to examine soil microbial community compositions and to predict the genetic potential of microbial N transformations. Regardless of grass species, Proteobacteria was dominant, accounting for 44%, followed by Actinobacteria (32%), Acidobacteria (15%) and Bacteroidetes (6%). For fungal community, Ascomycota (44%) was the most abundant phylum, followed by Basidiomycota (8%) and Glomeromycota (4%).Only minor differences were shown between warm and cool season turf systems, with Verrucomicrobia in bacteria, and Chitridiomycota and Glomeromycota in fungi being more abundant in cool season grasses. Of the six grass species, microbial diversity was the highest in tall fescue and the lowest in creeping bentgrass. Despite community compositional changes, the overall nitrogen cycling patterns predicted by PICRUSt remained similar among the turf species."
Language:English
References:0
Note:This item is an abstract only!
"406-1"
ASA/CSSA/SSSA Citation (Crop Science-Like - may be incomplete):
Xia, Q., H. Chen, T. Yang, G. L. Miller, and W. Shi. 2017. Investigation into soil microbiome and nitrogen cycling patterns in warm and cool season turfgrass systems. Agron. Abr. p. 104933.
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    Last checked: 10/23/2017
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