Braithwaite, Hope Bateman, Timothy M. Veblen, Kari E. Thacker, Eric and Villalba, Juan J. 2016. Identification of elk preferences for different diet supplements. Wildlife Society Bulletin, Vol. 40, Issue. 2, p. 368.
da Silva, Rodrigo Fortes Kitagawa, Alexandre and Sánchez Vázquez, Francisco Javier 2016. Dietary self-selection in fish: a new approach to studying fish nutrition and feeding behavior. Reviews in Fish Biology and Fisheries, Vol. 26, Issue. 1, p. 39.
Kearney, P.E. Murray, P.J. Hoy, J.M. Hohenhaus, M. and Kotze, A. 2016. The ‘Toolbox’ of strategies for managing Haemonchus contortus in goats: What’s in and what’s out. Veterinary Parasitology, Vol. 220, p. 93.
van den Berg, M. Lee, C. Brown, W.Y. and Hinch, G.N. 2016. Does energy intake influence diet selection of novel forages by horses?. Livestock Science, Vol. 186, p. 6.
Gregorini, P. Villalba, J. J. Provenza, F. D. Beukes, P. C. and Forbes, J. M. 2015. Modelling preference and diet selection patterns by grazing ruminants: a development in a mechanistic model of a grazing dairy cow, MINDY. Animal Production Science, Vol. 55, Issue. 3, p. 360.
Masters, David 2015. Halophytic and Salt-Tolerant Feedstuffs.
Egea, A. Vanina Hall, Jeffery O. Miller, James Spackman, Casey and Villalba, Juan J. 2014. Reduced neophobia: A potential mechanism explaining the emergence of self-medicative behavior in sheep. Physiology & Behavior, Vol. 135, p. 189.
Villalba, Juan J. Miller, James Ungar, Eugene D. Landau, Serge Y. and Glendinning, John 2014. Ruminant self-medication against gastrointestinal nematodes: evidence, mechanism, and origins. Parasite, Vol. 21, p. 31.
Amit, M. Cohen, I. Marcovics, A. Muklada, H. Glasser, T.A. Ungar, E.D. and Landau, S.Y. 2013. Self-medication with tannin-rich browse in goats infected with gastro-intestinal nematodes. Veterinary Parasitology, Vol. 198, Issue. 3-4, p. 305.
Forbey, Jennifer Sorensen Dearing, M. Denise Gross, Elisabeth M. Orians, Colin M. Sotka, Erik E. and Foley, William J. 2013. A Pharm-Ecological Perspective of Terrestrial and Aquatic Plant-Herbivore Interactions. Journal of Chemical Ecology, Vol. 39, Issue. 4, p. 465.
Good, Amber N. Kavaliers, Martin and Ossenkopp, Klaus-Peter 2013. Modeling the effects of low toxin levels in food on feeding: Dose-dependent reduction of fluid intake by low levels of lithium chloride. Toxicology Letters, Vol. 221, Issue. 3, p. 191.
Nikkhah, A. 2013. Chronophysiology of ruminant feeding behavior and metabolism: an evolutionary review. Biological Rhythm Research, Vol. 44, Issue. 2, p. 197.
Villalba, J.J. Miller, J. Hall, J.O. Clemensen, A.K. Stott, R. Snyder, D. and Provenza, F.D. 2013. Preference for tanniferous (Onobrychis viciifolia) and non-tanniferous (Astragalus cicer) forage plants by sheep in response to challenge infection with Haemonchus contortus. Small Ruminant Research, Vol. 112, Issue. 1-3, p. 199.
Windley, Hannah R. Wallis, Ian R. DeGabriel, Jane L. Moore, Ben D. Johnson, Christopher N. and Foley, William J. 2013. A faecal index of diet quality that predicts reproductive success in a marsupial folivore. Oecologia, Vol. 173, Issue. 1, p. 203.
Meier, Janina Sarah Kreuzer, Michael and Marquardt, Svenja 2012. Design and methodology of choice feeding experiments with ruminant livestock. Applied Animal Behaviour Science, Vol. 140, Issue. 3-4, p. 105.
Miller, Christine W. Fletcher, Robert J. Anderson, Benjamin D. and Nguyen, Linhchi D. 2012. Natal social environment influences habitat selection later in life. Animal Behaviour, Vol. 83, Issue. 2, p. 473.
Markó, Gábor Novák, Ildikó Bernáth, Jenő and Altbäcker, Vilmos 2011. Both Gas Chromatography and an Electronic Nose Reflect Chemical Polymorphism of Juniper Shrubs Browsed or Avoided by Sheep. Journal of Chemical Ecology, Vol. 37, Issue. 7, p. 705.
Moore, Ben D. Lawler, Ivan R. Wallis, Ian R. Beale, Colin M. and Foley, William J. 2010. Palatability mapping: a koala's eye view of spatial variation in habitat quality. Ecology, Vol. 91, Issue. 11, p. 3165.
Brito, A.F. Tremblay, G.F. Lapierre, H. Bertrand, A. Castonguay, Y. Bélanger, G. Michaud, R. Benchaar, C. Ouellet, D.R. and Berthiaume, R. 2009. Alfalfa cut at sundown and harvested as baleage increases bacterial protein synthesis in late-lactation dairy cows. Journal of Dairy Science, Vol. 92, Issue. 3, p. 1092.
Black Rubio, Christina M. Cibils, Andrés F. Endecott, Rachel L. Petersen, Mark K. and Boykin, Kenneth G. 2008. Piñon–Juniper Woodland Use by Cattle in Relation to Weather and Animal Reproductive State. Rangeland Ecology & Management, Vol. 61, Issue. 4, p. 394.
A herbivore faces challenges while foraging—ongoing changes in its physiological condition along with variation in the nutrient and toxin concentrations of foods, spatially and temporally—that make selecting a nutritious diet a vital affair. Foraging behaviours arise from simple rules that operate across levels of resolution from cells and organs to individuals and their interactions with social and physical environments. At all these levels, behaviour is a function of its consequences: a behaviour operating on the environment to induce changes is itself changed by those events. Thus, behaviour emerges from its own functioning—behaviour self-organizes-not from that of its surroundings. This ostensible autonomy notwith-standing, no self-organizing system (cell, organ, or individual) is independent of its environs because existence consists of an ongoing exchange of energy and matter. According to this view, the notion of cause and effect is replaced with functional relationships between behaviours and environmental consequences. Changes in physical environments alter the distribution, abundance, nutritional, and toxicological characteristics of plants, which affect food preference. Social interactions early in life influence behaviour in various ways: animals prefer familiar foods and environments, and they prefer to be with companions. Animals in unfamiliar environments often walk farther, ingest less food, and suffer more from malnutrition and toxicity than animals in familiar environments. An individual's food preferences—and its ability to discriminate familiar from novel foods—arise from the functional integration of sensory (smell, taste, texture) and postingestive (effects of nutrients and toxins on chemo-, osmo-, and mechano-receptors) effects. The ability to discriminate among foods is critical for survival: all problems with poisonous plants are due to an inability to discriminate or a lack of alternatives. Animals eat a variety of foods as a result of nearing or exceeding tolerance limits for sensory and postingestive effects unique to each food. After eating any food too frequently or excessively, the likelihood increases that animals will eat alternative foods owing to exceeding sensory-, nutrient-, and toxin-specific tolerance limits. Cyclic patterns of intake of a variety of foods reflect seemingly chaotic interactions among flavours, nutrients, and toxins interacting along continua.
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