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Nikolaos KaloterakisForschungszentrum Jülich · Institute of Bio- and Geosciences (IBG)
Nikolaos Kaloterakis
Master of Science
PhD student - Agriculture
About
8
Publications
942
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47
Citations
Introduction
Plant - Soil - Microbe interactions
Additional affiliations
August 2020 - April 2024
Education
September 2017 - September 2019
September 2012 - October 2016
Publications
Publications (8)
As water quality and availability decrease in many parts of the world, salinity is becoming a major challenge that reduces crop yield, even in soilless cultivation systems. Therefore, novel strategies are needed to promote plant salt tolerance in these systems. We hypothesized that the non-essential element silicon (Si) and plant-growth-promoting B...
Beneficial soil microbes can enhance plant growth and defense, but the extent to which this occurs depends on the availability of resources, such as water and nutrients. However, relatively little is known about the role of light quality, which is altered during shading, resulting a low red: far-red ratio (R:FR) of light. We examined how low R:FR l...
Successive winter wheat (WW) rotations are associated with a substantial yield decline, and the underlying mechanisms remain elusive. An outdoor experiment was set up using sandy loam soil. WW was grown in rhizotrons, in soil after oilseed rape (KW1), after one season of WW (KW2), and after three successive seasons of WW (KW4). We applied zymograph...
Aims
Successive winter wheat (WW) rotations are associated with yield reduction, often attributed to the unfavorable soil microbes that persist in the soil through plant residues. How rotational positions of WW affect the allocation of freshly assimilated carbon (C), an energy source for soil microbes, above and belowground remains largely unknown....
Aims
Successively grown winter wheat (WW) is associated with yield reduction, often attributed to the unfavorable soil microbes that persist in the soil through plant residues. How rotational positions of WW affect the allocation of freshly assimilated carbon (C) above and belowground remains largely unknown.
Methods
A ¹³CO2 pulse labeling rhizotr...
16 Self-succession of winter wheat (WW) in crop rotations results in substantial yield 17 decline and the underlying mechanisms remain elusive. An outdoor experiment was 18 set up using sandy loam arable soil. WW was grown in rhizotrons, in soil after oilseed 19 rape (KW1), after one season of WW (KW2), and after three successive seasons of 20 WW (...
Self-succession of winter wheat (WW) in crop rotations results in substantial yield decline. This decline has been mostly attributed to the soil-borne fungus Gaeumannomyces graminis var. tritici (Ggt; take-all) causing earlier root senescence. A broad shift in the soil microbial community has also recently been proposed to confound this effect even...