Macaca Leonina): Testing the Priority-Of-Access Model
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Targets, Tactics, and Cooperation in the Play Fighting of Two Genera of Old World Monkeys (Mandrillus and Papio): Accounting for Similarities and Differences
2019, 32 Heather M. Hill Editor Peer-reviewed Targets, Tactics, and Cooperation in the Play Fighting of Two Genera of Old World Monkeys (Mandrillus and Papio): Accounting for Similarities and Differences Kelly L. Kraus1, Vivien C. Pellis1, and Sergio M. Pellis1 1 Department of Neuroscience, University of Lethbridge, Canada Play fighting in many species involves partners competing to bite one another while avoiding being bitten. Species can differ in the body targets that are bitten and the tactics used to attack and defend those targets. However, even closely related species that attack and defend the same body target using the same tactics can differ markedly in how much the competitiveness of such interactions is mitigated by cooperation. A degree of cooperation is necessary to ensure that some turn-taking between the roles of attacker and defender occurs, as this is critical in preventing play fighting from escalating into serious fighting. In the present study, the dyadic play fighting of captive troops of 4 closely related species of Old World monkeys, 2 each from 2 genera of Papio and Mandrillus, was analyzed. All 4 species have a comparable social organization, are large bodied with considerable sexual dimorphism, and are mostly terrestrial. In all species, the target of biting is the same – the area encompassing the upper arm, shoulder, and side of the neck – and they have the same tactics of attack and defense. However, the Papio species exhibit more cooperation in their play than do the Mandrillus species, with the former using tactics that make biting easier to attain and that facilitate close bodily contact. -
Body Measurements for the Monkeys of Bioko Island, Equatorial Guinea
Primate Conservation 2009 (24): 99–105 Body Measurements for the Monkeys of Bioko Island, Equatorial Guinea Thomas M. Butynski¹,², Yvonne A. de Jong² and Gail W. Hearn¹ ¹Bioko Biodiversity Protection Program, Drexel University, Philadelphia, PA, USA ²Eastern Africa Primate Diversity and Conservation Program, Nanyuki, Kenya Abstract: Bioko Island, Equatorial Guinea, has a rich (eight genera, 11 species), unique (seven endemic subspecies), and threat- ened (five species) primate fauna, but the taxonomic status of most forms is not clear. This uncertainty is a serious problem for the setting of priorities for the conservation of Bioko’s (and the region’s) primates. Some of the questions related to the taxonomic status of Bioko’s primates can be resolved through the statistical comparison of data on their body measurements with those of their counterparts on the African mainland. Data for such comparisons are, however, lacking. This note presents the first large set of body measurement data for each of the seven species of monkeys endemic to Bioko; means, ranges, standard deviations and sample sizes for seven body measurements. These 49 data sets derive from 544 fresh adult specimens (235 adult males and 309 adult females) collected by shotgun hunters for sale in the bushmeat market in Malabo. Key Words: Bioko Island, body measurements, conservation, monkeys, morphology, taxonomy Introduction gordonorum), and surprisingly few such data exist even for some of the more widespread species (for example, Allen’s Comparing external body measurements for adult indi- swamp monkey Allenopithecus nigroviridis, northern tala- viduals from different sites has long been used as a tool for poin monkey Miopithecus ogouensis, and grivet Chlorocebus describing populations, subspecies, and species of animals aethiops). -
The Taxonomy of Primates in the Laboratory Context
P0800261_01 7/14/05 8:00 AM Page 3 C HAPTER 1 The Taxonomy of Primates T HE T in the Laboratory Context AXONOMY OF P Colin Groves RIMATES School of Archaeology and Anthropology, Australian National University, Canberra, ACT 0200, Australia 3 What are species? D Taxonomy: EFINITION OF THE The biological Organizing nature species concept Taxonomy means classifying organisms. It is nowadays commonly used as a synonym for systematics, though Disagreement as to what precisely constitutes a species P strictly speaking systematics is a much broader sphere is to be expected, given that the concept serves so many RIMATE of interest – interrelationships, and biodiversity. At the functions (Vane-Wright, 1992). We may be interested basis of taxonomy lies that much-debated concept, the in classification as such, or in the evolutionary implica- species. tions of species; in the theory of species, or in simply M ODEL Because there is so much misunderstanding about how to recognize them; or in their reproductive, phys- what a species is, it is necessary to give some space to iological, or husbandry status. discussion of the concept. The importance of what we Most non-specialists probably have some vague mean by the word “species” goes way beyond taxonomy idea that species are defined by not interbreeding with as such: it affects such diverse fields as genetics, biogeog- each other; usually, that hybrids between different species raphy, population biology, ecology, ethology, and bio- are sterile, or that they are incapable of hybridizing at diversity; in an era in which threats to the natural all. Such an impression ultimately derives from the def- world and its biodiversity are accelerating, it affects inition by Mayr (1940), whereby species are “groups of conservation strategies (Rojas, 1992). -
The Behavioral Ecology of the Tibetan Macaque
Fascinating Life Sciences Jin-Hua Li · Lixing Sun Peter M. Kappeler Editors The Behavioral Ecology of the Tibetan Macaque Fascinating Life Sciences This interdisciplinary series brings together the most essential and captivating topics in the life sciences. They range from the plant sciences to zoology, from the microbiome to macrobiome, and from basic biology to biotechnology. The series not only highlights fascinating research; it also discusses major challenges associ- ated with the life sciences and related disciplines and outlines future research directions. Individual volumes provide in-depth information, are richly illustrated with photographs, illustrations, and maps, and feature suggestions for further reading or glossaries where appropriate. Interested researchers in all areas of the life sciences, as well as biology enthu- siasts, will find the series’ interdisciplinary focus and highly readable volumes especially appealing. More information about this series at http://www.springer.com/series/15408 Jin-Hua Li • Lixing Sun • Peter M. Kappeler Editors The Behavioral Ecology of the Tibetan Macaque Editors Jin-Hua Li Lixing Sun School of Resources Department of Biological Sciences, Primate and Environmental Engineering Behavior and Ecology Program Anhui University Central Washington University Hefei, Anhui, China Ellensburg, WA, USA International Collaborative Research Center for Huangshan Biodiversity and Tibetan Macaque Behavioral Ecology Anhui, China School of Life Sciences Hefei Normal University Hefei, Anhui, China Peter M. Kappeler Behavioral Ecology and Sociobiology Unit, German Primate Center Leibniz Institute for Primate Research Göttingen, Germany Department of Anthropology/Sociobiology University of Göttingen Göttingen, Germany ISSN 2509-6745 ISSN 2509-6753 (electronic) Fascinating Life Sciences ISBN 978-3-030-27919-6 ISBN 978-3-030-27920-2 (eBook) https://doi.org/10.1007/978-3-030-27920-2 This book is an open access publication. -
Pest Risk Assessment
PEST RISK ASSESSMENT De Brazza‟s Monkey Cercopithecus neglectus Photo: Aaron Logan from Wikimedia Commons under the Creative Commons Attribution 1.0 Generic license June 2011 Department of Primary Industries, Parks, Water and Environment Resource Management and Conservation Division Department of Primary Industries, Parks, Water and Environment 2011 Information in this publication may be reproduced provided that any extracts are acknowledged. This publication should be cited as: DPIPWE (2011) Pest Risk Assessment: De Brazza’s Monkey (Cercopithecus neglectus). Department of Primary Industries, Parks, Water and Environment. Hobart, Tasmania. About this Pest Risk Assessment This pest risk assessment is developed in accordance with the Policy and Procedures for the Import, Movement and Keeping of Vertebrate Wildlife in Tasmania (DPIPWE 2011). The policy and procedures set out conditions and restrictions for the importation of mammals, birds, reptiles and amphibians pursuant to s32 of the Nature Conservation Act 2002. This pest risk assessment is prepared by DPIPWE for the use within the Department. For more information about this Pest Risk Assessment, please contact: Wildlife Management Branch Department of Primary Industries, Parks, Water and Environment Address: GPO Box 44, Hobart, TAS. 7001, Australia. Phone: 1300 386 550 Email: [email protected] Visit: www.dpipwe.tas.gov.au Disclaimer The information provided in this Pest Risk Assessment is provided in good faith. The Crown, its officers, employees and agents do not accept liability however arising, including liability for negligence, for any loss resulting from the use of or reliance upon the information in this Pest Risk Assessment and/or reliance on its availability at any time. -
UNIVERSITY of CALGARY Determinants of Group Size and Composition for Colobus Vellerosus at Boabeng-Fiema, Ghana
UNIVERSITY OF CALGARY Determinants of Group Size and Composition for Colobus vellerosus at Boabeng-Fiema, Ghana: Ecological versus Social Factors by Julie A. Teichroeb A THESIS SUBMITTED TO THE FACULTY OF GRADUATE STUDIES IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE DEGREE OF DOCTOR OF PHILOSOPHY DEPARTMENT OF ANTHROPOLOGY CALGARY, ALBERTA MARCH, 2009 © Julie A. Teichroeb 2009 UNIVERSITY OF CALGARY FACULTY OF GRADUATE STUDIES The undersigned certify that they have read, and recommend to the Faculty of Graduate Studies for acceptance, a thesis titled “Determinants of Group Size and Composition for Colobus vellerosus at Boabeng-Fiema, Ghana: Ecological versus Social Factors” submitted by Julie A. Teichroeb in partial fulfillment of the requirements for the degree of Doctor of Philosophy. ___________________________________ Supervisor, Dr. Pascale Sicotte, Department of Anthropology ___________________________________ Dr. Linda Fedigan, Department of Anthropology ___________________________________ Dr. Robert Longair, Department of Biological Sciences ___________________________________ Dr. Warren Wilson, Department of Archaeology ___________________________________ External Examiner, Dr. Rasanayagam Rudran, Scientist Emeritus, Smithsonian Institution _____________ Date ii ABSTRACT Intense within-group food competition is not thought to influence social organization for folivorous primates. Thus, they are expected by the socioecological model to live in large groups, exploiting benefits such as predation avoidance. However, many folivores form small groups, well below the threshold to avoid within-group scramble competition for food (the “folivore paradox”, Janson & Goldsmith, 1995). Social factors, rather than ecological factors, are thought to determine social organization for folivores, though this has rarely been systematically tested. In this study, the relative contribution of ecological versus social factors on the group size and composition of ursine colobus monkeys (Colobus vellerosus ) at the Boabeng-Fiema Monkey Sanctuary, Ghana was explored. -
HAMADRYAS BABOON (Papio Hamadryas) CARE MANUAL
HAMADRYAS BABOON (Papio hamadryas) CARE MANUAL CREATED BY THE AZA Hamadryas Baboon Species Survival Plan® Program IN ASSOCIATION WITH THE AZA Old World Monkey Taxon Advisory Group Hamadryas Baboon (Papio hamadryas) Care Manual Hamadryas Baboon (Papio hamadryas) Care Manual Published by the Association of Zoos and Aquariums in collaboration with the AZA Animal Welfare Committee Formal Citation: AZA Baboon Species Survival Plan®. (2020). Hamadryas Baboon Care Manual. Silver Spring, MD: Association of Zoos and Aquariums. Original Completion Date: July 2020 Authors and Significant Contributors: Jodi Neely Wiley, AZA Hamadryas Baboon SSP Coordinator and Studbook Keeper, North Carolina Zoo Margaret Rousser, Oakland Zoo Terry Webb, Toledo Zoo Ryan Devoe, Disney Animal Kingdom Katie Delk, North Carolina Zoo Michael Maslanka, Smithsonian National Zoological Park and Conservation Biology Institute Reviewers: Joe Knobbe, San Francisco Zoological Gardens, former Old World Monkey TAG Chair, SSP Vice Coordinator Hamadryas Baboon AZA Staff Editors: Felicia Spector, Animal Care Manual Editor Consultant Candice Dorsey, PhD, Senior Vice President, Conservation, Management, & Welfare Sciences Rebecca Greenberg, Animal Programs Director Emily Wagner, Conservation Science & Education Intern Raven Spencer, Conservation, Management, & Welfare Sciences Intern Hana Johnstone, Conservation, Management, & Welfare Sciences Intern Cover Photo Credits: Jodi Neely Wiley, North Carolina Zoo Disclaimer: This manual presents a compilation of knowledge provided by recognized animal experts based on the current science, practice, and technology of animal management. The manual assembles basic requirements, best practices, and animal care recommendations to maximize capacity for excellence in animal care and welfare. The manual should be considered a work in progress, since practices continue to evolve through advances in scientific knowledge. -
Analysis of 100 High-Coverage Genomes from a Pedigreed Captive Baboon Colony
Downloaded from genome.cshlp.org on September 27, 2021 - Published by Cold Spring Harbor Laboratory Press Resource Analysis of 100 high-coverage genomes from a pedigreed captive baboon colony Jacqueline A. Robinson,1 Saurabh Belsare,1 Shifra Birnbaum,2 Deborah E. Newman,2 Jeannie Chan,2 Jeremy P. Glenn,2 Betsy Ferguson,3,4 Laura A. Cox,5,6 and Jeffrey D. Wall1 1Institute for Human Genetics, University of California, San Francisco, California 94143, USA; 2Department of Genetics, Texas Biomedical Research Institute, San Antonio, Texas 78245, USA; 3Division of Genetics, Oregon National Primate Research Center, Beaverton, Oregon 97006, USA; 4Department of Molecular and Medical Genetics, Oregon Health and Science University, Portland, Oregon 97239, USA; 5Center for Precision Medicine, Department of Internal Medicine, Section of Molecular Medicine, Wake Forest School of Medicine, Winston-Salem, North Carolina 27101, USA; 6Southwest National Primate Research Center, Texas Biomedical Research Institute, San Antonio, Texas 78245, USA Baboons (genus Papio) are broadly studied in the wild and in captivity. They are widely used as a nonhuman primate model for biomedical studies, and the Southwest National Primate Research Center (SNPRC) at Texas Biomedical Research Institute has maintained a large captive baboon colony for more than 50 yr. Unlike other model organisms, however, the genomic resources for baboons are severely lacking. This has hindered the progress of studies using baboons as a model for basic biology or human disease. Here, we describe a data set of 100 high-coverage whole-genome sequences obtained from the mixed colony of olive (P. anubis) and yellow (P. cynocephalus) baboons housed at the SNPRC. -
High-Ranking Geladas Protect and Comfort Others After Conflicts
www.nature.com/scientificreports OPEN High-Ranking Geladas Protect and Comfort Others After Conficts Elisabetta Palagi1, Alessia Leone1, Elisa Demuru1 & Pier Francesco Ferrari2 Post-confict afliation is a mechanism favored by natural selection to manage conficts in animal Received: 2 January 2018 groups thus avoiding group disruption. Triadic afliation towards the victim can reduce the likelihood Accepted: 30 August 2018 of redirection (benefts to third-parties) and protect and provide comfort to the victim by reducing its Published: xx xx xxxx post-confict anxiety (benefts to victims). Here, we test specifc hypotheses on the potential functions of triadic afliation in Theropithecus gelada, a primate species living in complex multi-level societies. Our results show that higher-ranking geladas provided more spontaneous triadic afliation than lower- ranking subjects and that these contacts signifcantly reduced the likelihood of further aggression on the victim. Spontaneous triadic afliation signifcantly reduced the victim’s anxiety (measured by scratching), although it was not biased towards kin or friends. In conclusion, triadic afliation in geladas seems to be a strategy available to high-ranking subjects to reduce the social tension generated by a confict. Although this interpretation is the most parsimonious one, it cannot be totally excluded that third parties could also be afected by the negative emotional state of the victim thus increasing a third party’s motivation to provide comfort. Therefore, the debate on the linkage between third-party afliation and emotional contagion in monkeys remains to be resolved. Conficts in social animals can have various immediate and long-term outcomes. Immediately following a con- fict, opponents may show a wide range of responses, from tolerance and avoidance of open confict, to aggres- sion1. -
A Comparison of the Karyotype of Five Species in Genus Macaca
© 2006 The Japan Mendel Society Cytologia 71(2): 161–167, 2006 A Comparison of the Karyotype of Five Species in Genus Macaca (Primate, Cercopithecidae) in Thailand by Using Conventional Staining, G-banding and High-Resolution Technique Alongkoad Tanomtong*,1, Sumpars Khunsook1, Wiwat Kaensa1 and Ruengwit Bunjongrat2 1 Genetics Program, Department of Biology, Faculty of Science, Khon Kaen University, Khon Kaen, 40002, Thailand 2 Genetics Program, Department of Botany, Faculty of Science, Chulalongkorn University, Phayathai, Bangkok, 10330, Thailand Received February 7, 2006; accepted March 1, 2006 Summary Cytogenetics of 5 macaque species from genus Macaca in Thailand were studied using lymphocyte cultures and high-resolution techniques. Their chromosome numbers are 2nϭ42, 20 pairs of autosome, and 1 pair of sex-chromosome. M. arctoides and M. mulatta have a fundamental number (NF) 84 in male and female but the others have 83 in male and 84 in female. They have 6 large, 4 medium, 8 small metacentric chromosomes and 8 large, 12 medium, 2 small submetacentric chromosomes respectively. M. fascicularis and M. mulatta have medium metacentric X chromo- some. M. assamensis, M. nemestrina and M. arctoides have medium submetacentric X chromosome. M. arctoides has small submetacentric Y chromosomes, M. mulatta has small metacentric Y chro- mosomes, while M. assamensis, M. fascicularis and M. nemestrina have small telocentric Y chromo- somes. By using G-banding in metaphase and high-resolution technique in late prophase, the results show that the bands are 274, 273, 273, 275, 273 and 351, 350, 350, 352, 350 respectively. Their auto- some and X chromosome are similar but their Y chromosome is different. -
255 Investigations Into the Regulation of Dominance
255 INVESTIGATIONS INTO THE REGULATION OF DOMINANCE BEHAVIOUR AND OF THE DIVISION OF LABOUR IN BUMBLEBEE COLONIES (BOMBUS TERRESTRIS) by ADRIAAN VAN DOORN (ZoologicalInstitute II, Röntgenring10, 8700 Würzburg, West-Germany. Laboratory of ComparativePhysiology, Jan van Galenstraat40, 3572 LA Utrecht, The Netherlands*) SUMMARY During the first part of colony life Bombusterrestris queens have a strong regulating in- fluence on worker dominance. Dominant workers from queenless groups which are introduced into the colony are immediately dominated by the queen. They drop to a low position in the dominance hierarchy of the colony and may start foraging. The queen's dominance signal decreases at a certain, queen-specific time after she has switched to the laying of unfertilized eggs. Then an introduced dominant worker will supersede her and become the 'false-queen'. The false-queen apparently does not pro- duce the complete dominance signal since she usually has to carry out attacks on the workers to establish and maintain her dominance. The workers' flexibility with respect to the tasks they perform (foraging or nest duties) decreases with their age and in the course of colony development. House bees, especially those which have achieved a high position in the dominance hierarchy, are less inclined to change their tasks after removal of the foragers than foragers after removal of the house bees. But, in both cases, most of the work is taken over by young workers (less than 10 days old). Foragers which change to nest duties may substantial- ly increase their dominance and may become egglayers. Juvenile hormone (JH) treatment does not affect the division of labour, but it does influence the activity of the workers. -
Colobus Vellerosus): Influence of Age, Rank and Contact with Other Groups on Dispersal Decisions
CORE Metadata, citation and similar papers at core.ac.uk Provided by DukeSpace Dispersal in male ursine colobus monkeys (Colobus vellerosus): influence of age, rank and contact with other groups on dispersal decisions Julie A. Teichroeb1), Eva C. Wikberg & Pascale Sicotte (Department of Anthropology, University of Calgary, 2500 University Drive N.W., Calgary, AB, Canada T2N 1N4) (Accepted: 29 April 2011) Summary Dispersal is male-biased in ursine colobus monkeys (Colobus vellerosus), although female dispersal also occurs (Teichroeb et al., 2009). Here we describe the process of male disper- sal and its connection with between-group encounters (BGEs, N = 444) and male incur- sions (when males left their group and approached within 50 m of another group; N = 128) at the Boabeng-Fiema Monkey Sanctuary in central Ghana. Through BGEs and incursions, particularly those with non-aggressive interactions between individuals in different groups (BGEs, N = 17; incursions, N = 4), males could probably assess other groups for disper- sal opportunities. There was a trend for males to perform incursions more frequently before emigrating voluntarily than involuntarily. Incursions were often performed towards the group that the male eventually transferred to. Incursions by alpha males were temporally shorter and more aggressive than those by non-alpha males. We suggest that non-alpha males used incursions to assess other groups for breeding or dispersal opportunities, whereas alpha males performed incursions mainly to convey information about their quality to neighbouring males and females. Male emigrations/disappearances (natal N = 20, secondary N = 43, unknown N = 9) and immigrations (N = 62) were recorded for seven groups during ten years (2000– 2010).