TY - JOUR
T1 - Interaction of minerals, organic matter, and microorganisms during biogeochemical interface formation as shown by a series of artificial soil experiments
AU - Pronk, Geertje J.
AU - Heister, Katja
AU - Vogel, Cordula
AU - Babin, Doreen
AU - Bachmann, Jörg
AU - Ding, Guo Chun
AU - Ditterich, Franziska
AU - Gerzabek, Martin H.
AU - Giebler, Julia
AU - Hemkemeyer, Michael
AU - Kandeler, Ellen
AU - Kunhi Mouvenchery, Yamuna
AU - Miltner, Anja
AU - Poll, Christian
AU - Schaumann, Gabriele E.
AU - Smalla, Kornelia
AU - Steinbach, Annelie
AU - Tanuwidjaja, Irina
AU - Tebbe, Christoph C.
AU - Wick, Lukas Y.
AU - Woche, Susanne K.
AU - Totsche, Kai U.
AU - Schloter, Michael
AU - Kögel-Knabner, Ingrid
N1 - Publisher Copyright:
© 2016, Springer-Verlag Berlin Heidelberg.
PY - 2017/1/1
Y1 - 2017/1/1
N2 - Our understanding of the interactions between minerals, organic matter, and microorganisms at so-called biogeochemical interfaces in soil is still hampered by the inherent complexity of these systems. Artificial soil maturation experiments can help to bridge a gap in complexity between simple abiotic sorption experiments and larger-scale field experiments. By controlling other soil-forming factors, the effect of a particular variable can be identified in a simplified system. Here, we review the findings of a series of artificial soil incubation experiments with the aim of revealing general trends and conclusions. The artificial soils were designed to determine the effect of mineral composition and charcoal presence on the development of abiotic and biotic soil properties during maturation. In particular, the development of soil aggregates, organic matter (OM) composition and turnover, sorption properties, and the establishment of microbial community composition and function were considered. The main objectives of the research were to determine (1) how surface properties and sorption of chemicals modify biogeochemical interfaces; (2) how much time is required to form aggregates from mixtures of pure minerals, OM, and a microbial inoculum; and (3) how the presence of different mineral and charcoal surfaces affects aggregation, OM turnover, and the development of microbial community composition.
AB - Our understanding of the interactions between minerals, organic matter, and microorganisms at so-called biogeochemical interfaces in soil is still hampered by the inherent complexity of these systems. Artificial soil maturation experiments can help to bridge a gap in complexity between simple abiotic sorption experiments and larger-scale field experiments. By controlling other soil-forming factors, the effect of a particular variable can be identified in a simplified system. Here, we review the findings of a series of artificial soil incubation experiments with the aim of revealing general trends and conclusions. The artificial soils were designed to determine the effect of mineral composition and charcoal presence on the development of abiotic and biotic soil properties during maturation. In particular, the development of soil aggregates, organic matter (OM) composition and turnover, sorption properties, and the establishment of microbial community composition and function were considered. The main objectives of the research were to determine (1) how surface properties and sorption of chemicals modify biogeochemical interfaces; (2) how much time is required to form aggregates from mixtures of pure minerals, OM, and a microbial inoculum; and (3) how the presence of different mineral and charcoal surfaces affects aggregation, OM turnover, and the development of microbial community composition.
KW - Biogeochemical interfaces
KW - Experimental pedology
KW - Interdisciplinary soil science
KW - Secondary phyllosilicates
KW - Soil microbial ecology
KW - Soil organic matter
UR - http://www.scopus.com/inward/record.url?scp=84996619268&partnerID=8YFLogxK
U2 - 10.1007/s00374-016-1161-1
DO - 10.1007/s00374-016-1161-1
M3 - Review article
AN - SCOPUS:84996619268
SN - 0178-2762
VL - 53
SP - 9
EP - 22
JO - Biology and Fertility of Soils
JF - Biology and Fertility of Soils
IS - 1
ER -