Ecological Applications Journal Impact Factor & Information

Publisher: Ecological Society of America, Ecological Society of America

Journal description

Ecological Applications, published eight times per year, contains ecological research and discussion papers that have specific relevance to environmental management and policy.

Current impact factor: 4.13

Impact Factor Rankings

2015 Impact Factor Available summer 2015
2013 / 2014 Impact Factor 4.126
2012 Impact Factor 3.815
2011 Impact Factor 5.102
2010 Impact Factor 4.276
2009 Impact Factor 3.672
2008 Impact Factor 3.628
2007 Impact Factor 3.571
2006 Impact Factor 3.47
2005 Impact Factor 3.804
2004 Impact Factor 3.287
2003 Impact Factor 2.852
2002 Impact Factor 3.025
2001 Impact Factor 3.335
2000 Impact Factor 3.488
1999 Impact Factor 2.784
1998 Impact Factor 2.482
1997 Impact Factor 2.18
1996 Impact Factor 2.378
1995 Impact Factor 2.231
1994 Impact Factor 1.556
1993 Impact Factor 2.537
1992 Impact Factor 1.868

Impact factor over time

Impact factor
Year

Additional details

5-year impact 4.84
Cited half-life 8.80
Immediacy index 0.53
Eigenfactor 0.04
Article influence 2.02
Website Ecological Applications website
Other titles Ecological applications
ISSN 1051-0761
OCLC 21798547
Material type Periodical, Internet resource
Document type Journal / Magazine / Newspaper, Internet Resource

Publisher details

Ecological Society of America

  • Pre-print
    • Author can archive a pre-print version
  • Post-print
    • Author can archive a post-print version
  • Conditions
    • Publisher's version/PDF may be used
    • On author's personal website, employer's website, or institutional repository
    • Publisher copyright and source must be acknowledged (first page must state "Copyright by the Ecological Society of America," along with the full citation)
  • Classification
    ​ green

Publications in this journal

  • Source
    [Show abstract] [Hide abstract]
    ABSTRACT: We investigated the roles of local environmental conditions and dispersal limitation in zooplankton recovery from acidification in Swan Lake, Ontario, a historically acidified, metal-contaminated lake. We hypothesized that local environmental conditions (pH and the presence of resident, acid-tolerant zooplankton) would limit the establishment of several zooplankton colonist species. We tested this in a factorial mesocosm experiment that ran for 32 days during the mid summer. Ambient pH (5.6) reduced the abundance of two acid-sensitive cladoceran taxa, Daphnia spp. and Ceriodaphnia lacustris compared to elevated pH (6.5) but increased the abundance of cyclopoid copepod juveniles. The resident community suppressed Skistodiaptomus oregonensis and Diacyclops bicuspidatus thomasi, and to a lesser extent Mesocyclops edax, but slightly enhanced Daphnia spp. We also hypothesized that conditions in the sediments of acidified Swan Lake would limit zoo-plankton recruitment from diapausing eggs. We tested this by reciprocally transferring sediments containing eggs between Swan Lake and a nearby recovered lake, and incubating them for 15 weeks in 20-L emergence traps. Most zooplankton emerged from diapause in both lakes indicating that this mechanism contributes to the recolonization of acidified lakes once pH returns to normal. Some species, however, emerged in only one lake or the other, indicating that hatching cues such as light, temperature, oxygen, or appropriate pH may have been missing. Our experiments demonstrate that both local lake conditions and dia-pausing eggs can influence zooplankton recovery. Continued recovery may require addi-tional management efforts to reduce and control regional acid emissions and active inter-vention in the form of food web manipulations.
    Ecological Applications 01/2025; 15:2025-2036. DOI:10.1890/04-1726
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    ABSTRACT: In this study, by coupling long-term ecological data with empirical proxies of societal demand for benefits, we measured the capacity of forest watersheds to provide ecosystem services over variable time periods, to different beneficiaries, and in response to discrete perturbations and drivers of change. We revisited one of the earliest ecosystem experiments in North America: the 1963 de-vegetation of a forested catchment at Hubbard Brook Experimental Forest in New Hampshire, USA. Potential benefits of the regulation of water flow, water quality, greenhouse gases and forest growth were compared between experimental (WS 2) and reference (WS 6) watersheds over a 30-year period. Both watersheds exhibited similarly high capacity for flow regulation, in part because functional loads remained low (i.e., few major storm events) during the de-vegetation period. Drought mitigation capacity - maintenance of flows sufficient to satisfy municipal water consumption - was higher in WS 2, due to reduced evapotranspiration associated with loss of plant cover. We also assessed watershed capacity to regulate flows to satisfy different beneficiaries, including hypothetical 'flood averse' and 'drought averse' types. Capacity to regulate water quality was severely degraded during de-vegetation, as nitrate concentrations exceeded drinking water standards on 40% of measurement days. Once forest regeneration began, WS 2 rapidly recovered the capacity to provide safe drinking water, and subsequently mitigated the eutrophication potential of rainwater at a marginally higher level than WS 6. We estimated this additional 'pollution removal' benefit would have to accrue for approximately 65-70 years to offset the net eutrophication 'cost' incurred during forest removal. Overall, our results affirmed the critical role of forest vegetation in water regulation, but also indicated tradeoffs associated with forest removal and recovery that partially depend on larger-scale exogenous changes in climate forcing and pollution inputs. We also provide a starting point for integrating long-term ecological research and modeling data into ecosystem services science.
    Ecological Applications 06/2015; DOI:10.1890/14-1376.1
  • Ecological Applications 04/2015; DOI:10.1890/15-0113.1
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    ABSTRACT: The evaluation of ecosystem quality is inherently subjective, requiring decisions about which variables to notice or measure, and how these variables are integrated into a coherent evaluation. Despite the central role of human judgement, few evaluation methods address the subjectivity that is inherent in their design. There are, however, advantages to using opinion directly, to create an expert system where the metric is constructed around opinion data. These advantages include stakeholder inclusion and the encouragement of a dialogue of data-driven criticism rather than subjective counter-opinion. We create an expert system to express the quality of a grassland ecosystem in Australia. We use an ensemble of bagged regression trees trained on calibrated expert preference data to model the perceived quality of grassland, using a set of eight site variables as inputs. The model provides useful predictions of grassland quality, producing predictions similar to real expert evaluations of independent synthetic test sites not used to train the model. We apply the model to real grassland sites ranging from pristine to highly degraded, and confirm that our model orders the sites according to their degree of modification. We demonstrate that the use of too few experts produces relatively poor results, and show that for our problem the use of data from over twenty experts is appropriate. The scaling approach we used to calibrate between-expert data is shown to be an appropriate mechanism for aggregating the opinions of multiple experts. The resultant model will be useful in many contexts. It can be used by managers as a tool to evaluate real sites. It can also be integrated into ecological models of change as a means of evaluating predicted changes, for example as a measure of utility when combined with cost estimates. The basic approach demonstrated here is applicable to any ecosystem, and we discuss the opportunities and limitations of its wider use. Read More: http://www.esajournals.org/doi/abs/10.1890/14-1485.1
    Ecological Applications 04/2015; forthcoming. DOI:10.1890/14-1485.1
  • Ecological Applications 04/2015; 25(3):866-879. DOI:10.1890/14-0189.1
  • Ecological Applications 03/2015; DOI:10.1890/14-2015.1
  • Ecological Applications 03/2015; DOI:10.1890/14-2476.1
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    ABSTRACT: Insects approved for classical biocontrol of weeds are often capable of using close relatives of their target weed for feeding, oviposition, or larval development, with reduced preference and performance. When nontarget herbivory occurs and is suspected to reduce survival, growth, or fecundity of individual plants, and insects are capable of reproducing on their nontarget host, characterization of spatial and temporal patterns of the occurrence and intensity of herbivory is valuable for predicting potential population-level effects. Here, we perform a novel post-release manipulative field experiment with a root-feeding biocontrol weevil, Mogulones crucifer, released in Canada to control the rangeland weed Cynoglossum officinale, to test for its ability to establish on the nontarget plant Hackelia micrantha. After Cynoglossum, M. crucifer exhibits its highest preference for and performance on Hackelia spp. We released M. crucifer on Canadian rangeland sites with naturally occurring populations of H. micrantha growing interspersed with the target weed or in the near absence of the target weed. Adult weevil feeding on surrounding plants was monitored for three summers after release (years 0, 1, and 2), and, subsequently, subsets of plants were destructively sampled to determine M. crucifer oviposition levels. Additional oviposition and larval development data were obtained from seven non-experimental sites where weevils were released zero, three, or four years earlier. M. crucifer was not detected on experimental sites without C. officinale after two years, and nontarget herbivory was restricted to rare, low-level spillover. Visible evidence of adult herbivory (i.e., scars on shoots) was associated with oviposition in 90% of targets but only 30% of nontarget plants. We infer, through ecological refuge theory, that nontarget population-level impacts from M. crucifer spillover are unlikely because of temporal, spatial, and probabilistic refuges from herbivory, and make recommendations for monitoring and management of biocontrol systems with similar attributes, such as removing target plants around nontarget populations of interest. Because M. crucifer is among the least host-specific of the modern weed biocontrol agents, and H. micrantha is likely one of its most highly preferred nontargets, these conclusions are, arguably, generally applicable to other nontarget plants and biocontrol systems.
    Ecological Applications 03/2015; 25(2):517-530. DOI:10.1890/14-0250.1