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Biological activity in metal-contaminated calcareous agricultural soils: the role of the organic matter composition and the particle size distribution
Authors
A Garcia-Villaraco Velasco
A Ghani
+50 more
A Santiago-Martín de
A Santiago-Martín de
A Santiago-Martín de
AK Müller
Ana de Santiago-Martín
Antonio L. Lafuente
Antonio Vázquez
BL Turner
CJF Braak Ter
CJF Braak Ter
Concepción González-Huecas
CR Rao
E Kandeler
F Carmiña
F Eivazi
F Gúlser
F Nourbakhsh
G Renella
HY Yao
Javier Quirós Gómez
JL Garland
JL Moreno
Jose R. Quintana
K Sadar
L Roca-Perez
LS Zeng
Luisa Martin Calvarro
M Liao
M Liao
MA Tabatabai
MA Tabatabai
MJ Martinez-Iñigo
ON Belyaeva
P Nannipieri
P Quevauviller
P Rovira
R Kızılkaya
R Kızılkaya
RG Burns
RMCP Rajapaksha
Rosalía Ramírez Vera
S Lee
SJ Grayston
SK Gupta
SK Gupta
T Müller
Teresa M. Rodríguez Fernández
W Mersi Von
WL Lindsay
Z Yang
Publication date
1 January 2014
Publisher
'Springer Science and Business Media LLC'
Doi
Cite
Abstract
Organic matter (OM) plays a key role in microbial response to soil metal contamination, yet little is known about how the composition of the OM affects this response in Mediterranean calcareous agricultural soils. A set of Mediterranean soils, with different contents and compositions of OM and carbonate and fine mineral fractions, was spiked with a mixture of Cd, Cu, Pb, and Zn and incubated for 12 months for aging. Microbial (Biolog Ecoplates) and enzyme activities (dehydrogenase, DHA; β-galactosidase, BGAL; phosphatase, PHOS; and urease, URE) were assessed and related to metal availability and soil physicochemical parameters. All enzyme activities decreased significantly with metal contamination 36-68 % (DHA), 24-85 % (BGAL), 22-72 % (PHOS), and 14-84 % (URE) inhibitions. Similarly, catabolic activity was negatively affected, especially phenol catabolism (~86 % compared to 25-55 % inhibition for the rest of the substrates). Catabolic and DHA activities were negatively correlated with ethylenediaminetetraacetic acid (EDTA)-extractable Cd and Pb, but positively with CaCl2, NaNO3, and DTPA-extractable Cu and Zn. Soluble OM (water- and hot-water-soluble organic C) was positively related to enzyme and catabolic activities. Recalcitrant OM and fine mineral fractions were positively related to BGAL and PHOS. Conversely, catabolic activity was negatively related to clay and positively to silt and labile OM. Results indicate that the microbial response to metal contamination is highly affected by texture and OM composition. © 2014 Springer-Verlag Berlin Heidelberg
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