Dani Boix

Dr. Dani Boix


Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 July 2017 in Biological Conservation
Verified
Journal Article
Closed access
ACAram J.K. Calhoun
Aram J.K. Calhoun
DMDavid M. Mushet
David M. Mushet
KBKathleen P. Bell
Kathleen P. Bell
DBDani Boix
Dani Boix
JFJames Fitzsimons
James Fitzsimons
FIFrancis Isselin-Nondedeu
Francis Isselin-Nondedeu

7 November 2013 in Hydrobiologia
Verified
Journal Article
Closed access
PDF file
RCRégis Céréghino
Régis Céréghino
DBDani Boix
Dani Boix
HCHenry-Michel Cauchie
Henry-Michel Cauchie
KMKoen Martens
Koen Martens
BOBeat Oertli
Beat Oertli

1 July 2010 in Limnology and Oceanography
Verified
Journal Article
Open access
SBSandra Brucet
Sandra Brucet
DBDani Boix
Dani Boix
XQXavier D. Quintana
Xavier D. Quintana
EJElisabeth Jensen
Elisabeth Jensen
LNLouise W. Nathansen
Louise W. Nathansen
Erik JeppesenErik Jeppesen
Erik Jeppesen
We assessed the importance of temperature, salinity, and predation for the size structure of zooplankton and provided insight into the future ecological structure and function of shallow lakes in a warmer climate. Artificial plants were introduced in eight comparable coastal shallow brackish lakes located at two contrasting temperatures: cold‐temperate and Mediterranean climate region. Zooplankton, fish, and macroinvertebrates were sampled within the plants and at open‐water habitats. The fish communities of these brackish lakes were characterized by small‐sized individuals, highly associated with submerged plants. Overall, higher densities of small planktivorous fish were recorded in the Mediterranean compared to the cold‐temperate region, likely reflecting temperature‐related differences as have been observed in freshwater lakes. Our results suggest that fish predation is the major control of zooplankton size structure in brackish lakes, since fish density was related to a decrease in mean body size and density of zooplankton and this was reflected in a unimodal shaped biomass‐size spectrum with dominance of small sizes and low size diversity. Salinity might play a more indirect role by shaping zooplankton communities toward more salt‐tolerant species. In a global‐warming perspective, these results suggest that changes in the trophic structure of shallow lakes in temperate regions might be expected as a result of the warmer temperatures and the potentially associated increases in salinity. The decrease in the density of large‐bodied zooplankton might reduce the grazing on phytoplankton and thus the chances of maintaining the clear water state in these ecosystems.

1 March 2010 in Journal of Hydrology
Verified
Journal Article
Closed access
DBDani Boix
Dani Boix
EGEmili García-Berthou
Emili García-Berthou
SGStéphanie Gascón
Stéphanie Gascón
LBLluís Benejam
Lluís Benejam
ETElisabet Tornés
Elisabet Tornés
SSSergi Sabater
Sergi Sabater

14 February 2012 in Hydrobiologia
Verified
Journal Article
Closed access
PDF file
DBDani Boix
Dani Boix
JBJeremy Biggs
Jeremy Biggs
RCRégis Céréghino
Régis Céréghino
AHAndrew P. Hull
Andrew P. Hull
TKThomas Kalettka
Thomas Kalettka
BOBeat Oertli
Beat Oertli

29 February 2012 in PLOS ONE
Verified
Journal Article
Open access
PDF file
SBSandra Brucet
Sandra Brucet
DBDani Boix
Dani Boix
LNLouise W. Nathansen
Louise W. Nathansen
XQXavier D. Quintana
Xavier D. Quintana
EJElisabeth Jensen
Elisabeth Jensen
Erik JeppesenErik Jeppesen
Erik Jeppesen
Climate warming may lead to changes in the trophic structure and diversity of shallow lakes as a combined effect of increased temperature and salinity and likely increased strength of trophic interactions. We investigated the potential effects of temperature, salinity and fish on the plant-associated macroinvertebrate community by introducing artificial plants in eight comparable shallow brackish lakes located in two climatic regions of contrasting temperature: cold-temperate and Mediterranean. In both regions, lakes covered a salinity gradient from freshwater to oligohaline waters. We undertook day and night-time sampling of macroinvertebrates associated with the artificial plants and fish and free-swimming macroinvertebrate predators within artificial plants and in pelagic areas. Our results showed marked differences in the trophic structure between cold and warm shallow lakes. Plant-associated macroinvertebrates and free-swimming macroinvertebrate predators were more abundant and the communities richer in species in the cold compared to the warm climate, most probably as a result of differences in fish predation pressure. Submerged plants in warm brackish lakes did not seem to counteract the effect of fish predation on macroinvertebrates to the same extent as in temperate freshwater lakes, since small fish were abundant and tended to aggregate within the macrophytes. The richness and abundance of most plant-associated macroinvertebrate taxa decreased with salinity. Despite the lower densities of plant-associated macroinvertebrates in the Mediterranean lakes, periphyton biomass was lower than in cold temperate systems, a fact that was mainly attributed to grazing and disturbance by fish. Our results suggest that, if the current process of warming entails higher chances of shallow lakes becoming warmer and more saline, climatic change may result in a decrease in macroinvertebrate species richness and abundance in shallow lakes.