根际旨在推进我们对植物-土壤相互作用理解的前沿。 RHIZOSPHERE 是一本多学科期刊，发表关于植物根系、土壤生物、养分和水之间相互作用的研究。除了通过光合作用固定碳外，植物主要通过根从土壤中获取所有其他元素。我们开始了解根际与土壤生物和其他植物物种的交流如何影响根系分泌物和养分吸收。这一快速发展的学科利用分子生物学和基因组工具、食物网或群落结构操作、高效液相色谱、同位素分析、各种光谱分析、断层扫描和其他显微镜、复杂的统计和建模工具。

The journal "Rhizosphere" aims to advance our understanding of plant-soil interactions. It is a multidisciplinary journal that publishes research on the interactions between plant roots, soil biota, nutrients, and water. Plants primarily acquire all elements from the soil through their roots, aside from carbon fixed through photosynthesis. We are beginning to understand how the communication between the rhizosphere, soil biota, and other plant species affects root exudates and nutrient uptake. This rapidly evolving field employs molecular biology and genomic tools, manipulation of food webs or community structures, high-performance liquid chromatography, isotope analysis, various spectroscopic analyses, tomography, and other microscopy techniques, as well as complex statistical and modeling tools.

《Rhizosphere》期刊旨在推进我们对植物与土壤相互作用的理解。它是一份多学科的期刊，发表关于植物根系、土壤生物、养分和水之间相互作用的研究。植物主要通过根系从土壤中获取除碳以外的所有元素，除了通过光合作用固定碳。我们逐渐认识到根际与土壤生物及其他植物物种之间的交流如何影响根系分泌物和养分吸收。这一快速发展的学科利用分子生物学和基因组工具、食物网或群落结构的操作、高效液相色谱、同位素分析、各种光谱分析、断层扫描及其他显微镜技术，以及复杂的统计和建模工具。

Rhizosphere

Jinxing Wang

Zhengjiao Ding

Jing Bian

Tingting Bo

Yajun Liu

Chemotaxis response of Meloidogyne incognita to volatiles and organic acids from root exudates

Hexon Angel Contreras-Cornejo

John Larsen

Sylvia Patricia Fernández-Pavía

Ken Oyama

Climate change, a booster of disease outbreaks by the plant pathogen Phytophthora in oak forests

气候变化：橡树林中植物病原菌疫霉引发疾病爆发的助推器

Over the past century, the significance of the rhizosphere has been increasingly recognized by the scientific community. This complex biological system is comprised of vast interconnected networks of microbial organisms that interact directly with their plant hosts, including archaea, bacteria, fungi, picoeukaryotes, and viruses. The rhizosphere provides a nutritional base to the terrestrial biosphere, and is integral to plant growth, crop production, and ecosystem health. There is little mechanistic understanding of the rhizosphere, however, and that constitutes a critical knowledge gap. It inhibits our ability to predict and control the terrestrial ecosystem to achieve desirable outcomes, such as sustainable bioenergy production, crop yield maximization in diverse biogeographical envionments, and soil-based carbon sequestration. Multi-omics have the potential to significantly advance our knowledge of rhizospheric science. This review covers multi-omic techniques and technologies; methods and protocols for specific rhizospheric science questions; and the challenges to be addressed during this century of rhizospheric science.

Richard Allen White

Albert Rivas-Ubach

Mark I. Borkum

Martina Köberl

Aivett Bilbao

Sean M. Colby

David W. Hoyt

Kerem Bingol

Young-Mo Kim

Jason P. Wendler

Kim K. Hixson

Christer Jansson

The state of rhizospheric science in the era of multi-omics: A practical guide to omics technologies

多组学时代根际科学的现状：多组学技术的实用指南

Both quantity and quality of root exudates regulate the dynamic of soil organic matter (SOM). However, how chemical composition of root exudates varies among woody species is less known. In this study, we identified two major groups of primary metabolites, namely monosaccharides and organic acids, in the root exudates of two dominant species and two of their congeneric species in a temperate forest. Monosaccharides and seven types of organic acids constituted 38.7% and 22.7% of total carbon (C) in the root exudates, respectively. The release pattern of our target metabolites exhibited no difference among target species. Furthermore, C flux rates of two most abundant primary metabolites we detected, namely monosaccharides and citric acid, exhibited positive relations with total root-exudate C, and the slopes were not different among target species. The similar release pattern of target primary metabolites may induce similar microbial response to root-exudates among target species in SOM dynamic.

Lijuan Sun

Mioko Ataka

Yuji Kominami

Kenichi Yoshimura

Kanehiro Kitayama

Similar release pattern of two major groups of primary metabolites in root exudates of four coexisting canopy species

四种共存冠层物种根系分泌物中两类主要初级代谢物相似的释放模式

Root exudates induce microbial nitrogen (N) mineralization and hence increase soil N availability to plants. To elucidate why the flux rates of root exudates explain microbial N mineralization quantitatively in woody plants, we assessed how the flux rates of root exudates affect the microbial C/N ratio and fungi-to-bacteria (F:B) ratio and therefore the N-degrading enzymes and net N mineralization. We investigated four co-existing canopy species in a warm temperate forest. The flux rates of root exudates were measured in situ using syringe-based cultivation. Microbial biomass carbon (C) and N, fungal and bacterial biomarkers, the activities of N-degrading enzymes, and net N-mineralization rate were measured in both rhizosphere and bulk soils. Microbial biomass C (N) and fungal and bacterial biomarkers were positively related to root exudation rates. Microbial C/N ratio remained unchanged, while the F:B ratio was positively correlated with exudation rates. Mediator analysis suggested that a 'microbial biomass to N-degrading enzyme' pathway mediated the microbial N mineralization induced by root exudation, probably because both the fungal and bacterial group contributed to the N-degrading enzyme NAG. In this forest, root exudation stimulated microbial N mineralization linearly due to a growing N demand to sustain a constant microbial C/N ratio. Therefore, the C investment of root exudation can be an efficient N-acquisition strategy for co-existing woody species.

A constant microbial C/N ratio mediates the microbial nitrogen mineralization induced by root exudation among four co-existing canopy species

常量微生物C/N比介导了四种共存冠层物种根系分泌物诱导的微生物氮矿化

Jie Yang

Xiaoyan Dai

Yuyin Zhang

Qingli Xiao

Chao Yang

Pingwei Qin

Chaopeng Song

Biochar Improves Root Growth and Nitrogen Metabolism in Tobacco through Physiological Pathways Modulation

生物炭通过调节生理途径改善烟草根系生长和氮代谢

Stanlous Juma Waswa

Waceke J. Wanjohi

Maina Mwangi

INTEGRATED MANAGEMENT OF ROOT-KNOT NEMATODES ON TREE TOMATO

树番茄根结线虫的综合管理

Pablo Schulman

Luiz Cesar Lopes Filho

Juliana Pires Basílio

Elder Tadeu Barbosa

Nédio Tommen

Rafael de Souza Nunes

Nilvo Altmann

Jadson Belém de Moura

Murillo Lobo Junior

Cover crops as a strategy for root rot management in common beans: Effects on crop performance and root microbial dynamics in a Cerrado soil

豆类根腐病管理策略中的覆盖作物：对塞拉多土壤中作物表现和根际微生物动态的影响

Asma Fathinejad Poshkoohi

Mohammad Hossein Mohammadi

Mohsen. Zarebanadkouki

Hassan Etesami

Mucilage increases soil resistance to penetration after compaction

粘液在压实后增加土壤抗穿透性

Yasir Arafat

Asma Shah

Israr Ud Din

Muhsin Jamal

Mudassir Shah

Nigora Kuchkarova

Wenxiong Lin

Sheng Lin

Hua Shao

Root interactions in wheat/fababean intercropping system enhanced growth performance and yield

小麦/蚕豆间作系统中根系互作增强了生长表现和产量

Abbreviation
Journal Impact	3.35
Quartiles(Global)	SOIL SCIENCE(Q2)

ISSN	2452-2198
h-index	35

Publication Information	Publisher: Elsevier B.V.，Publishing cycle: ，Journal Type: journal，Open Access Journals: No
Basic data	Year of publication: 2016，Proportion of original research papers: 99.40%，Self Citation Rate:5.90%， Gold OA Rate: 7.41%

Rhizosphere

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