Interactions among anthropogenic effects on aquatic food webs

被引:15
|
作者
Kovalenko, Katya E. [1 ]
机构
[1] Univ Minnesota, Nat Resources Res Inst, 5013 Miller Trunk Highway, Duluth, MN 55811 USA
关键词
Slow energy channels; Weak interactions; Functional diversity; Resource pulses; Stoichiometry; Compartmentalization; Habitat complexity; UPPER PARANA RIVER; FRESH-WATER; FUNCTIONAL DIVERSITY; HABITAT HETEROGENEITY; ECOLOGICAL NETWORKS; NITROGEN-CYCLE; CLIMATE-CHANGE; GLOBAL CHANGE; BIODIVERSITY; STABILITY;
D O I
10.1007/s10750-019-04018-x
中图分类号
Q17 [水生生物学];
学科分类号
071004 ;
摘要
Food web structure is the underlying framework of ecological communities and human systems and it is closely related to ecosystem resilience. Our ability to predict food web changes in response to anthropogenic stress is dependent on our understanding of the interactions among food web-stabilizing mechanisms, making the study of these interactions a critical need for future research in aquatic sciences. This review discusses potential interactions among mechanisms implicated in maintaining aquatic food webs such as changes in functional diversity, compartmentalization, importance of weak interactions and slow energy channels, modification of resource subsidies, stoichiometry and habitat complexity. It outlines potential research directions in aquatic sciences and discusses implications of considering these pathways in management and conservation.
引用
收藏
页码:1 / 11
页数:11
相关论文
共 50 条
  • [31] Significance of predation by protists in aquatic microbial food webs
    Evelyn B. Sherr
    Barry F. Sherr
    Antonie van Leeuwenhoek, 2002, 81 : 293 - 308
  • [32] Communities at the extreme: Aquatic food webs in desert landscapes
    Moran, Nicholas P.
    Wong, Bob B. M.
    Thompson, Ross M.
    ECOLOGY AND EVOLUTION, 2019, 9 (19): : 11464 - 11475
  • [33] The movement of aquatic Mercury through terrestrial food webs
    Cristol, Daniel A.
    Brasso, Rebecka L.
    Condon, Anne M.
    Fovargue, Rachel E.
    Friedman, Scott L.
    Hallinger, Kelly K.
    Monroe, Adrian P.
    White, Ariel E.
    SCIENCE, 2008, 320 (5874) : 335 - 335
  • [34] Pesticides, aquatic food webs, and the conservation of Pacific salmon
    Macneale, Kate H.
    Kiffney, Peter M.
    Scholz, Nathaniel L.
    FRONTIERS IN ECOLOGY AND THE ENVIRONMENT, 2010, 8 (09) : 475 - 482
  • [35] Effects of Harmful Blooms of Large-Sized and Colonial Cyanobacteria on Aquatic Food Webs
    Moustaka-Gouni, Maria
    Sommer, Ulrich
    WATER, 2020, 12 (06)
  • [36] Birds are overlooked top predators in aquatic food webs
    Steinmetz, J
    Kohler, SL
    Soluk, DA
    ECOLOGY, 2003, 84 (05) : 1324 - 1328
  • [37] The ecological potentials of Phytomyxea ("plasmodiophorids") in aquatic food webs
    Neuhauser, Sigrid
    Kirchmair, Martin
    Gleason, Frank H.
    HYDROBIOLOGIA, 2011, 659 (01) : 23 - 35
  • [38] Effects of biomass changes in the supply-demand balance of energy in aquatic food webs
    Salcido-Guevara, Luis A.
    Arreguin-Sanchez, Francisco
    ECOLOGICAL MODELLING, 2014, 276 : 64 - 79
  • [39] Bioaccumulation Dynamics of Arsenate at the Base of Aquatic Food Webs
    Lopez, Adeline R.
    Hesterberg, Dean R.
    Funk, David H.
    Buchwalter, David B.
    ENVIRONMENTAL SCIENCE & TECHNOLOGY, 2016, 50 (12) : 6556 - 6564
  • [40] Biomagnification of Tantalum through Diverse Aquatic Food Webs
    Espejo, Winfred
    Kitamura, Daiki
    Kidd, Karen A.
    Celis, Jose E.
    Kashiwada, Shosaku
    Galban-Malagon, Cristobal
    Barra, Ricardo
    Chiang, Gustavo
    ENVIRONMENTAL SCIENCE & TECHNOLOGY LETTERS, 2018, 5 (04): : 196 - 201