Ecological Niche Theory: a Brief Review
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Human Niche Construction in Interdisciplinary Focus
Downloaded from rstb.royalsocietypublishing.org on February 14, 2011 Human niche construction in interdisciplinary focus Jeremy Kendal, Jamshid J. Tehrani and John Odling-Smee Phil. Trans. R. Soc. B 2011 366, 785-792 doi: 10.1098/rstb.2010.0306 References This article cites 46 articles, 16 of which can be accessed free http://rstb.royalsocietypublishing.org/content/366/1566/785.full.html#ref-list-1 Rapid response Respond to this article http://rstb.royalsocietypublishing.org/letters/submit/royptb;366/1566/785 Subject collections Articles on similar topics can be found in the following collections behaviour (1807 articles) evolution (2433 articles) Receive free email alerts when new articles cite this article - sign up in the box at the top Email alerting service right-hand corner of the article or click here To subscribe to Phil. Trans. R. Soc. B go to: http://rstb.royalsocietypublishing.org/subscriptions This journal is © 2011 The Royal Society Downloaded from rstb.royalsocietypublishing.org on February 14, 2011 Phil. Trans. R. Soc. B (2011) 366, 785–792 doi:10.1098/rstb.2010.0306 Introduction Human niche construction in interdisciplinary focus Jeremy Kendal1,*, Jamshid J. Tehrani1 and John Odling-Smee2 1Centre for the Coevolution of Biology and Culture, Department of Anthropology, University of Durham, South Road, Durham DH1 3LE, UK 2School of Anthropology, University of Oxford, 51/53 Banbury Road, Oxford OX2 6PE, UK Niche construction is an endogenous causal process in evolution, reciprocal to the causal process of natural selection. It works by adding ecological inheritance, comprising the inheritance of natural selection pressures previously modified by niche construction, to genetic inheritance in evolution. -
Demographic History and the Low Genetic Diversity in Dipteryx Alata (Fabaceae) from Brazilian Neotropical Savannas
Heredity (2013) 111, 97–105 & 2013 Macmillan Publishers Limited All rights reserved 0018-067X/13 www.nature.com/hdy ORIGINAL ARTICLE Demographic history and the low genetic diversity in Dipteryx alata (Fabaceae) from Brazilian Neotropical savannas RG Collevatti1, MPC Telles1, JC Nabout2, LJ Chaves3 and TN Soares1 Genetic effects of habitat fragmentation may be undetectable because they are generally a recent event in evolutionary time or because of confounding effects such as historical bottlenecks and historical changes in species’ distribution. To assess the effects of demographic history on the genetic diversity and population structure in the Neotropical tree Dipteryx alata (Fabaceae), we used coalescence analyses coupled with ecological niche modeling to hindcast its distribution over the last 21 000 years. Twenty-five populations (644 individuals) were sampled and all individuals were genotyped using eight microsatellite loci. All populations presented low allelic richness and genetic diversity. The estimated effective population size was small in all populations and gene flow was negligible among most. We also found a significant signal of demographic reduction in most cases. Genetic differentiation among populations was significantly correlated with geographical distance. Allelic richness showed a spatial cline pattern in relation to the species’ paleodistribution 21 kyr BP (thousand years before present), as expected under a range expansion model. Our results show strong evidences that genetic diversity in D. alata is the outcome of the historical changes in species distribution during the late Pleistocene. Because of this historically low effective population size and the low genetic diversity, recent fragmentation of the Cerrado biome may increase population differentiation, causing population decline and compromising long-term persistence. -
Can More K-Selected Species Be Better Invaders?
Diversity and Distributions, (Diversity Distrib.) (2007) 13, 535–543 Blackwell Publishing Ltd BIODIVERSITY Can more K-selected species be better RESEARCH invaders? A case study of fruit flies in La Réunion Pierre-François Duyck1*, Patrice David2 and Serge Quilici1 1UMR 53 Ӷ Peuplements Végétaux et ABSTRACT Bio-agresseurs en Milieu Tropical ӷ CIRAD Invasive species are often said to be r-selected. However, invaders must sometimes Pôle de Protection des Plantes (3P), 7 chemin de l’IRAT, 97410 St Pierre, La Réunion, France, compete with related resident species. In this case invaders should present combina- 2UMR 5175, CNRS Centre d’Ecologie tions of life-history traits that give them higher competitive ability than residents, Fonctionnelle et Evolutive (CEFE), 1919 route de even at the expense of lower colonization ability. We test this prediction by compar- Mende, 34293 Montpellier Cedex, France ing life-history traits among four fruit fly species, one endemic and three successive invaders, in La Réunion Island. Recent invaders tend to produce fewer, but larger, juveniles, delay the onset but increase the duration of reproduction, survive longer, and senesce more slowly than earlier ones. These traits are associated with higher ranks in a competitive hierarchy established in a previous study. However, the endemic species, now nearly extinct in the island, is inferior to the other three with respect to both competition and colonization traits, violating the trade-off assumption. Our results overall suggest that the key traits for invasion in this system were those that *Correspondence: Pierre-François Duyck, favoured competition rather than colonization. CIRAD 3P, 7, chemin de l’IRAT, 97410, Keywords St Pierre, La Réunion Island, France. -
To What Degree Are Philosophy and the Ecological Niche Concept Necessary in the Ecological Theory and Conservation?
EUROPEAN JOURNAL OF ECOLOGY EJE 2017, 3(1): 42-54, doi: 10.1515/eje-2017-0005 To what degree are philosophy and the ecological niche concept necessary in the ecological theory and conservation? Universidade Federal Rogério Parentoni Martins* do Ceará, Programa de Pós-Graduação em Ecologia e Recursos Naturais, Departamento ABSTRACT de Biologia, Centro de Ecology as a field produces philosophical anxiety, largely because it differs in scientific structure from classical Ciências, Brazil physics. The hypothetical deductive models of classical physics are simple and predictive; general ecological *Corresponding author, models are predictably limited, as they refer to complex, multi-causal processes. Inattention to the conceptual E-mail: rpmartins917@ structure of ecology usually imposes difficulties for the application of ecological models. Imprecise descrip- gmail.com tions of ecological niche have obstructed the development of collective definitions, causing confusion in the literature and complicating communication between theoretical ecologists, conservationists and decision and policy-makers. Intense, unprecedented erosion of biodiversity is typical of the Anthropocene, and knowledge of ecology may provide solutions to lessen the intensification of species losses. Concerned philosophers and ecolo- gists have characterised ecological niche theory as less useful in practice; however, some theorists maintain that is has relevant applications for conservation. Species niche modelling, for instance, has gained traction in the literature; however, there are few examples of its successful application. Philosophical analysis of the structure, precision and constraints upon the definition of a ‘niche’ may minimise the anxiety surrounding ecology, poten- tially facilitating communication between policy-makers and scientists within the various ecological subcultures. The results may enhance the success of conservation applications at both small and large scales. -
COULD R SELECTION ACCOUNT for the AFRICAN PERSONALITY and LIFE CYCLE?
Person. individ.Diff. Vol. 15, No. 6, pp. 665-675, 1993 0191-8869/93 S6.OOf0.00 Printedin Great Britain.All rightsreserved Copyright0 1993Pergamon Press Ltd COULD r SELECTION ACCOUNT FOR THE AFRICAN PERSONALITY AND LIFE CYCLE? EDWARD M. MILLER Department of Economics and Finance, University of New Orleans, New Orleans, LA 70148, U.S.A. (Received I7 November 1992; received for publication 27 April 1993) Summary-Rushton has shown that Negroids exhibit many characteristics that biologists argue result from r selection. However, the area of their origin, the African Savanna, while a highly variable environment, would not select for r characteristics. Savanna humans have not adopted the dispersal and colonization strategy to which r characteristics are suited. While r characteristics may be selected for when adult mortality is highly variable, biologists argue that where juvenile mortality is variable, K character- istics are selected for. Human variable birth rates are mathematically similar to variable juvenile birth rates. Food shortage caused by African drought induce competition, just as food shortages caused by high population. Both should select for K characteristics, which by definition contribute to success at competition. Occasional long term droughts are likely to select for long lives, late menopause, high paternal investment, high anxiety, and intelligence. These appear to be the opposite to Rushton’s r characteristics, and opposite to the traits he attributes to Negroids. Rushton (1985, 1987, 1988) has argued that Negroids (i.e. Negroes) were r selected. This idea has produced considerable scientific (Flynn, 1989; Leslie, 1990; Lynn, 1989; Roberts & Gabor, 1990; Silverman, 1990) and popular controversy (Gross, 1990; Pearson, 1991, Chapter 5), which Rushton (1989a, 1990, 1991) has responded to. -
Hutchinson's Ecological Niche for Individuals
Hutchinson’s ecological niche for individuals E. Takola a,*, H. Schielzeth a a Population Ecology Group, Institute of Ecology and Evolution, Friedrich Schiller University Jena, Dornburger Straße 159, 07743 Jena, Germany Orcid: ET: 0000-0003-1268-5513, HS: 0000-0002-9124-2261 *Corresponding author: Elina Takola, Institute of Ecology and Evolution, Friedrich Schiller University Jena, Dornburger Straße 159, 07743 Jena, Germany, [email protected], tel.: +4917661838151, https://orcid.org/0000-0003-1268-5513 1 Abstract 2 We here develop a concept of an individualized niche in analogy to Hutchison’s concept of the ecological niche 3 of a population. We consider the individualized (ecological) niche as the range of environmental conditions 4 under which a particular individual has a fitness expectation of ≥1. We address four specific challenges that occur 5 when scaling the niche down from populations to individuals: (1) We discuss the consequences of uniqueness 6 of individuals in a population and the corresponding lack of statistical replication. (2) We discuss the dynamic 7 nature of individualized niches and how they can be studied either as time-slice niches, as prospective niches or 8 as trajectory-based niches. (3) We discuss the dimensionality of the individualized niche, that is greater than the 9 population niche due to the additional dimensions of intra-specific niche space. (4) We discuss how the 10 boundaries of individualized niche space can to be defined by expected fitness and how expected fitness can be 11 inferred by marginalizing fitness functions across phenotypes or environments. We frame our discussion in the 12 context of recent interest in the causes and consequences of individual differences in animal behavior. -
The Role of Nearshore Ecosystems As Fish and Shellfish Nurseries
l About Issues in Ecology Issues in Ecology is designed to report, in language understandable by non-scientists, the consensus of a panel of scientific experts on issues relevant to the environment. Issues in Ecology is supported by the Pew Scholars in Conservation Biology program and by the Ecological Society of America. It is published at irregular intervals, as reports are com- pleted. All reports undergo peer review and must be approved by the Editorial Board before publication. No responsibility for the views expressed by authors in ESA publica- tions is assumed by the editors or the publisher, the Ecological Society of America. Issues in Ecology is an official publication of the Ecological Society of America, the nation’s leading professional society of ecologists. Founded in 1915, ESA seeks to promote the responsible application of ecological principles to the solution of environmental problems. For more information, contact the Ecological Society of America, 1707 H Street, NW, Suite 400, Washington, DC, 20006. ISSN 1092-8987 PublishedIssues by the Ecological Society of America in Eco Number 11, lSpringogy 2003 The RoleofNearshoreEcosystems as Fish andShellfishNurseries as Fish Issues in Ecology Number 11 Spring 2003 The Role of Nearshore Ecosystems as Fish and Shellfish Nurseries SUMMARY Coastal ecosystems provide many vital ecological and economic services, including shoreline protection, productive commercial and sport fisheries, and nutrient cycling. Key nearshore ecosystems such as seagrass meadows, marshes, and mangrove forests -
A Comparative Study of Four Indexes Based on Zooplankton As Trophic State Indicators in Reservoirs
Limnetica, 38(1): 291-302 (2019). DOI: 10.23818/limn.38.06 © Asociación Ibérica de Limnología, Madrid. Spain. ISSN: 0213-8409 A comparative study of four indexes based on zooplankton as trophic state indicators in reservoirs Daniel Montagud1,*, Juan M. Soria1, Xavier Soria-Perpiñà2, Teresa Alfonso1 and Eduardo Vicente1 1 Cavanilles Institute of Biodiversity and Evolutionary Biology (ICBIBE). University of Valencia, 46980-Pater- na, Spain. 2 Image Processing Laboratory. University of Valencia, 46980-Paterna, Spain. * Corresponding author: [email protected] Received: 15/02/18 Accepted: 25/06/18 ABSTRACT A comparative study of four indices based on zooplankton as trophic state indicators in reservoirs This study aims to examine four recently conducted trophic state indices that are based on the density of zooplankton and designed for estimating the trophic state of inland waters. These indices include two with formulations based on quotients or ratios, the Rcla and the Rzoo-chla, which were proposed and validated in the European project ECOFRAME (Moss et al., 2003), and two with formulations based on the incorporation of a statistical tool comprising canonical correspondences analysis (CCA), the Wetland Zooplankton Index proposed in 2002 by researchers from McMaster University of Ontario (Lougheed & Chow-Fraser, 2002) and the Zooplankton Reservoir Trophic Index, an index recently designed by the Ebro Basin Authority and on which this manuscript is the first article. These indices were studied and applied in 53 heterogeneous reservoirs of the Ebro Basin. In addition, all were subsequently validated by Carlson’s Trophic State Index based on the amount of chlorophyll a (Carlson, 1977), with significant differences found between them. -
Overview Directions
R E S O U R C E L I B R A R Y A C T I V I T Y : 1 H R Marine Food Webs Students investigate marine food webs and trophic levels, research one marine organism, and fit their organisms together in a class-created food web showing a balanced marine ecosystem. G R A D E S 9 - 12+ S U B J E C T S Biology, Ecology, Earth Science, Oceanography, Geography, Physical Geography C O N T E N T S 9 Images, 3 PDFs, 6 Links OVERVIEW Students investigate marine food webs and trophic levels, research one marine organism, and fit their organisms together in a class-created food web showing a balanced marine ecosystem. For the complete activity with media resources, visit: http://www.nationalgeographic.org/activity/marine-food-webs/ DIRECTIONS 1. Build background about marine trophic pyramids and food webs. Review with students that food chains show only one path of food and energy through an ecosystem. In most ecosystems, organisms can get food and energy from more than one source, and may have more than one predator. Healthy, well-balanced ecosystems are made up of multiple, interacting food chains, called food webs. Ask volunteers to come to the front of the room and draw a pyramid and a web. Explain that the shapes of a pyramid and a web are two different ways of representing predator-prey relationships and the energy flow in an ecosystem. Food chains are often represented as food pyramids so that the different trophic levels and the amount of energy and biomass they contain can be compared. -
Unit 2: Ecology
Name: _______________________________ Block: _____ Unit 2: Ecology Big Idea... The natural world is defined by organisms and life processes which conform to principles regarding conservation and transformation of matter and energy. Knowledge about life processes can be applied to improving human health and well being. Questions... ● How is matter transformed in living systems? ● How is energy transferred and transformed in living systems? ● How can change in one part of an ecosystem affect other parts of the ecosystem? ● How do humans impact the diversity and stability of ecosystems? Topics... ● Ecology is the study of interactions among living and nonliving things in an ecosystem. ● There are various types of interactions and scientists study them in many ways. ● The Earth is divided into biomes. ● Humans impact ecosystems within these biomes. Chapters… ● Chapter 13: Principles of Ecology (p.370) ● Chapter 14: Interactions in Ecosystems (p.400) ● Chapter 15: The Biosphere (p.426) ● Chapter 16: Human Impact on Ecosystems (p.452) Standards 5.3/12 A3,B1,B3,B6,C1,C2,C3; RST/910 1,4,5,10; CTE9.1/11 A3,F6; CTE9.4/12 1,7,52; 12/NQ 1; 12/AREI 10; 12/SID 17; 12/SIC 16 (Source: BHPS Biology Curriculum Guide) Biology / Mendenhall UNIT 2: Ecology 1 / 62 Date Do Now Biology / Mendenhall UNIT 2: Ecology 2 / 62 Chapter 13: Principles of Ecology Vocabulary Key Points… ● Ecology is the study of relationships among organisms and their environment. ● Every ecosystem contains both living and nonliving factors. ● Life in an ecosystem requires a source of energy. -
Biogeography, Changing Climates, and Niche Evolution
FROM THE ACADEMY: COLLOQUIUM PERSPECTIVE Biogeography, changing climates, and niche evolution David B. Wakea,b,1, Elizabeth A. Hadlyc, and David D. Ackerlya,d aDepartment of Integrative Biology, bMuseum of Vertebrate Zoology, and dJepson Herbarium, University of California, Berkeley, CA 94720; and cDepartment of Biology, Stanford University, Stanford, CA 94305 Edited by James Hemphill Brown, University of New Mexico, Albuquerque, NM, and approved September 29, 2009 (received for review September 25, 2009) odern concepts central to future will have access to the original figure in the history of science who current studies of biogeog- record of faunal conditions in Cali- wrote extensively about the relationships raphy, changing climates fornia and the west wherever we now of climate and vegetation. As a result of and evolution of ecological work. his studies of Volca´n Chimborazo in Mniches were born approximately a hun- Ecuador, von Humboldt appears to have These ideas were prophetic, and have dred years ago. In 1908, the Regents of been the first well known scientist to a special poignancy at this time, when the University of California established discuss the zonation of vegetation along the impact of global climate change is the Museum of Vertebrate Zoology at an altitudinal transect and to develop a evident and when we realize how much Berkeley, in accordance with the wishes concept of life zones (4). von Hum- we rely on records from the past, such of Annie M. Alexander (1867–1950). boldt’s work deeply influenced C. Hart as those meticulously kept by Grinnell, Alexander conceived the institution and Merriam who recalled, shortly before his his students, coworkers and successors. -
Ecology the Study of the Relationships Between Living Organisms and Their Environment Biosphere: Levels of Organization
Ecology The study of the relationships between living organisms and their environment Biosphere: Levels of Organization The organization of the biosphere from the most specific to the broadest level: Organism Population Community Ecosystem Biome Biosphere Biosphere = any part of the Earth where organisms live, broadest level of ecological study, includes all of Earth’s ecosystems The biosphere includes the lithosphere, hydrosphere, and atmosphere Biosphere Biome Biome = a geographic region that has separate but similar ecosystems characterized by a distinct climate Climate of a location determines which types of organisms are able to live there The major biomes on Earth include: tropical rainforest, temperate rainforest, desert, grassland, deciduous forest, coniferous forest, tundra, estuary, savanna, and taiga. Ecosystem Ecosystem = the biotic, or living, community and its abiotic, or nonliving, environment Ecosystems vary greatly in size and conditions The plants and animals of an ecosystem are determined by the abiotic factors Example of an Ecosystem All the living and nonliving factors inside a pond: The water in the pond The algae and plants that grow in the water The animals and bacteria that live in the water The dirt and rocks on the bottom The sunlight on the water Biotic vs. Abiotic Factors Biotic Factors: Living organisms and factors from formerly living organisms Include interactions between members of the same species and different species Abiotic Factors: Any nonliving geological, geographical and climatological