Production of root-derived material and associated microbial growth in soil at different nutrient levels

By R. Merckx, A. Dijkstra, A. D. Hartog, J. A. Veen. Biology and Fertility of Soils, 2004

190 citations recorded by the source corpus.

Subfields: Industrial and Manufacturing Engineering, Plant Science, Soil Science

View Paper: https://www.semanticscholar.org/paper/56fa72814e02e5df96f3d34602a4dcc39b3b3def

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Plant Science

1. C. Nguyen
2. E. Paterson
3. Xiubin Wang
4. Chao Ai
5. D. Myrold
6. C. Roumet
7. Jingwen Sun
8. Guoqing Liang

In Soil Science

1. C. Nguyen
2. D. Myrold
3. E. Paterson
4. Xiubin Wang
5. Chao Ai
6. C. Roumet
7. Jingwen Sun
8. Guoqing Liang

Citations in the corpus

• Indole-3-acetic acid production by Streptomyces sp. isolated from some Thai medicinal plant rhizosphere soils (2010, background): “Received: May 2009 Accepted: February 2010 Printed: February 2010 INTRODUCTION Streptomyces occur in the rhizosphere of plants and can enhance plant growth by producing plant growth promoter substances e.g. auxin or gibberellin (Kaunat 1969, Brown 1972, Merckx et al. 1987).”
• Importance of rhizodeposition in the coupling of plant and microbial productivity (2003, background): “…the rhizosphere is a site of intense N immobilization # 2003 Blackwell Publishing Ltd, European Journal of Soil Science, 54, 741–750 by microbes (Merckx et al., 1987), that N in the microbial biomass can be acquired rapidly by plant roots (Kuikman & van Veen, 1989; Kuikman et al., 1989), and…”
• Changes in microbial activity and composition in a pasture ecosystem exposed to elevated atmospheric carbon dioxide (2002, background): “Rhizosphere microorganisms directly utilize plantderived C (Merckx et al., 1987) and plants growing under CO2 enrichment produce greater amounts of available C due to an increased amount of rhizodeposition (Diaz et al., 1993; Rogers et al., 1994; van Veen et al., 1991).”
• Distribution and turnover of recently fixed photosynthate in ryegrass rhizospheres (2004, result): “Alternatively, it is possible that rhizodeposits had lower C:N ratios in Labeling Period 1 and that nitrogen (N) availability was influencing the amount of rhizodeposition that got incorporated into the microbial biomass, which has been documented in other studies (Merckx et al., 1987; Liljeroth et ”
• Responses of extracellular enzyme activities and microbial community in both the rhizosphere and bulk soil to long-term fertilization practices in a fluvo-aquic soil (2012, background): “Several studies have reported that application of inorganic fertilizers often reduced rhizosphere effects on soil organic matter (SOM) decomposition and nutrient mineralization (Liljeroth et al., 1994; Merckx et al., 1987).”
• Differences in rhizosphere carbon-partitioning among plant species of different families (2003, background): “Although part of the variation in rhizosphere allocation patterns can be explained by phenotypic response to the soil environment (Merckx et al., 1987; Saggar et al., 1997; Warembourg and Estelrich, 2001), genetic differences between species or higher taxa could have an influence.”
• Rhizodeposition of organic C by plants: mechanisms and controls (2003, background): “Indeed, the percentages of 14 C in rhizo-sphere respiration and in the soil residues are both significantly increased by nitrogen fertilization (the means of [91], [112], [113] [114], [95], [188], [191], [195 increase are +25% and +82%, respectively).”
• Biological carbon assimilation and dynamics in a flooded rice - Soil system (2012, unknown): “3%, respectively (Merckx et al., 1987; Kuzyakov and Schneckenberger, 2004), lower than the 5.”