<I>Cnemidophorus Sonorae</I>, and the Western Whiptail

Total Page:16

File Type:pdf, Size:1020Kb

<I>Cnemidophorus Sonorae</I>, and the Western Whiptail Great Basin Naturalist Volume 57 | Number 3 Article 12 7-31-1997 Helminths from the Sonoran spotted whiptail, Cnemidophorus sonorae, and the western whiptail, Cnemidophorus tigris (Sauria: Teiidae), from southern Arizona with comments on Abbreviata terrapenis (Nematoda: Physalopteridae) Stephen R. Goldberg Whittier College, Whittier, California Charles R. Bursey Pennsylvania State University, Shenango Campus, Sharon, Pennsylvania Hay Cheam Whittier College, Whittier, California Follow this and additional works at: http://scholarsarchive.byu.edu/gbn Recommended Citation Goldberg, Stephen R.; Bursey, Charles R.; and Cheam, Hay (1997) "Helminths from the Sonoran spotted whiptail, Cnemidophorus sonorae, and the western whiptail, Cnemidophorus tigris (Sauria: Teiidae), from southern Arizona with comments on Abbreviata terrapenis (Nematoda: Physalopteridae)," Great Basin Naturalist: Vol. 57: No. 3, Article 12. Available at: http://scholarsarchive.byu.edu/gbn/vol57/iss3/12 This Note is brought to you for free and open access by the Western North American Naturalist Publications at BYU ScholarsArchive. It has been accepted for inclusion in Great Basin Naturalist by an authorized administrator of BYU ScholarsArchive. For more information, please contact [email protected]. Creat Ba.<;in Katul'albi( 57(3), © 1997, pp. 273-277 HELMINTHS FROM THE SONORAN SPOTTED WHIPTAIL, CNEMlDOPHORUS SONORAE, AND THE WESTERN WHIPTAIL, CNEMIDOPHORUS TIGRIS (SAURIA: TEIIDAE), FROM SOUTHERN ARIZONA WITH COMMENTS ON ABBREVIATA TERRAPENIS (NEMATODA: PHYSALOPTERIDAE) Stephen R. Goldbergl , Charles R. Bursey2, and Hay Cheaml Key words: Cn.t:miduphorus SOlLorae, Cnemidophorus tigris, Teiidae, helrnilltJu, Nematoda, c&"Uxla, Acanthocephala, Arizo116. Cnemido-phorus sonorae Lowe and \Vright, (LAGM) and the University of Arizona (UAZ) 1964, the Sonoran spotted whiptail, occurs and examined; collection data are given in the fl"om southeastern Arizuna to northeastern Appendix. The lizards were originally pre­ Sonora and east to western New Mexico; Cne­ served in 10% formalin or BOllin's fixative and midophorus tigris Baird and Girard, 1852, the stored in 70% ethanol. The body cavity was western whiptail, ranges from Oregon and opened and the gastrointestinal tract was Idaho south through California to Baja Califor­ excised by cutting across the esophagus and nia and Coahuila, Mexico, and eastward to rectum. The esophagus, stomach, small intes­ western Colorado, New Mexico, and Texas tines, and large intestines were slit longitudi­ (Stebhins 1985). Helminths have been previ­ nally and examined separately under a dissect­ ously reported from Cnemidophorus sonorae ing microscope. The body cavity and liver were by McAllister (1992) and Cnemidophorus tigris also examined. Each helminth was removed by Grundmann (1959), Babero and Matthias and initially placed in a drop of glycerol on a (1967), Telford (1970), Specian and Ubelaker glass slide. Nematodes were identified Ii'om (1974a, 1974b), Benes (1985), and Lyon (1986). these temporary mounts. ecstacies were stained Abbreviata ten'apenis (Hill 1945) Morgan, with hematoxylin, mounted in balsam, and iden­ 1945 was originally deseribcd from specimens tified. AcanthlK.-ephalans were cleared. in xylene, taken from 7 ornate box turtles (TefTapene mounted in balsam, and assigned to genus. arnata) collected fi-om widely separated points Tenninology usage is in accordance with Mar­ in Oklahoma (Hill 1945). The 1st lizard host to golis et al. (1982). be repol'ted fol' this helminth was ScelOl'orus Cnemido-p/lOTUs Sonorae was found to har­ jarrovii, also collected from widely separated bor 2 species ofcestodcs, OochOlistica bioitel­ points in Arizona, New Mexico, and Mexico labala Loewen, 1940 aod 0. 1IUICf1IUsteri Bursey (Goldberg et al. 1995, 1996). The purpose of and Goldberg, 1996; and 3 species of nema­ this paper is to report on a helminthological todes, Abbreoiala ten'apenis, Pharyngodon examination of Cnem.idophorus S01lorae and wameli Harwood, 1932, and Thub"naea ene­ Cflemia.ophoru.s tigris from southern Alizona rnidophorus Babero aod Matthias, 1967. Cn"mi­ and the presence of A. terrapenis in these 2 dophorus tigris was found to harbor 1 species addilinnal lizard hosts. of cestode, 0. hivitellobutu; 2 species of nema­ Twenty-one female Cnetnidophorus SOllorae todes, A. terrapellis and P. warneli; and cysta­ (mean snout-vent length [SVL] = 73.2 rom + canths of a species of Acanthocephala, Cmtro­ 5.6 s, range 60-80) and 82 Cllemidophorus rhynchus sp. Prevalences and mean intensities tigris (28 females, 54 males; mean SVL = 65.6 for these helminths are given in Table I. The in­ mm + 10.1 s, I'ange 34-82 mrn) were harrowed fection prevalence between males and females fi-om the herpctology collections of the Nat­ of C. tigris was not significantly diffcrent (for ural History Museum of Los Angeles County A. terrape"is, X2 = 0.17, 1 dE, P > 0.05; for P. IDcpa.tl1W1lt of Biolugy, Whittier C"llc~, Wloinier, CA 9OGO.'l. 2\)epm1mOIlt of Biology. Penllsyh·""i3 Slllte UJlivenily, Sheua'lgfl Campu... 147 Shell~'ll;<) A'~lue. Sh:!.mo. PA 16146. 273 274 GREAT BASIN NATURALIST [Volume 57 TABLE 1. Gastrointestinal helminths of21 Cnemidophorus sonorae and 82 C. tigris from Pima County; AZ. Helminth Oochoristica bivitellobata Oochoristica macallisferi Abbreviata terrapenis Pharyngodon warneri Thubunaea cnemidoplwru.s Centrorhynchus sp. III _ estlplmgus, 1, _ ,tomach, c - small intestine, d ,. large intestine 2""w h()'l re<.~)rd wameri, x2 = 0.21, 1 df, P > 0.05). Cnemi­ lizard Scelopoms undulatus (M organ 1941, dophorus sonorae is a new host record for 0. McAllister and Trauth 1985). Adults ofAbbre­ macallisteri, A. terrapenis, P. wamen, and T. viata terrapenis have previously been reported cnemidophorus; C tigris is a new host record from Sceloporus jarrovii in Arizona, New Mex­ for A. terrapenis. Helminths were placed in vials ieo, and Mexico (Goldberg et al. 1995, 1996). of alcohol and deposited in the u.s. National This is also the 1st report of 0. macallisteri Parasite Collection (USNPC), Beltsville, Mary­ from a teiid lizard, although unidentified species land (accession numbers in Appendix). of Oochoristica have heen reported from Cne­ Oochoristica bivitellobata, Pharyngodon midophoms dixoni, C. gularis, and C. tesselatus wameri, and Thuhunaea cnemidophorus have (McAllister 1990a, 1990d, McAllister, Cordes, been previously reported in North American and Walker 1991). ln Arizona, Benes (1985) re­ lizards (Table 2) and may be limited to teiid ported OachoJistica from Cnemidophorus tigJis, lizards. The occurrence of T. cnemidophorus Coleonyx variegatus, Phrynosoma solare, Scelo­ in the crotalid snakes Crotalus cerastes, C. porus magister, and Uta stansburiana, but did mitchelli, and C. scutulatus by Babero and not identify the species. Emmerson (1974) needs further study to Abbreviata terrapenis is a heteroxenous determine if the snakes are indeed hosts, or if physalopterid helminth with an indirect life the parasites were present in lizards that the cycle involving an insect intermediate host snakes had ingested. McAllister (1992) ques­ (Anderson 1992). Echternacht (1967) reported tioned the determination of 0. bivitellobata in that termites are the major dietroy component Sceloporus undulatus and suggested that it for C. sonorae and C. tigris from the Santa Rita probably is Oochoristica scelopori; thus, S. un­ Mountains, Pima County, Arizona, represent­ dulatus is not included in Table 2. Species of ing over 90% of all prey organisms consumed. Centrorhynchus typically use arthropods (prob­ Mitchell (1979) reported a predominance of ahly insects) as intermediate hosts and primar­ termites in the diets of C. sonorae and C. tigris ily birds of prey as definitive hosts (Petro­ in Cochise County, southeastern Arizona. Vitt chenko 1958). The occasional presence of a and Ohmart (1977) similarly found that ter­ cystacanth in the stomach of an insectivore mites compose 76% of the diet of C. tigris could be expected. One nematode not found living along the Colorado River in western in these lizards, but frequently associated with Arizona. Pianka (1970) reported that, while teiid lizards, is Parathelandros texanus Specian southern c. tigris populations eat large quanti­ and Ubelaker, 1974. This helminth may be ties of termites, northern populations (Idaho, limited to west Texas (see Baker 1987). Nevada, Utah) utilize other food types and This is the first report of adult Abbreviata consume few termites. Iftermites serve as inter­ terrapenis from teiid lizards, although larvae mediate hosts for Abbreviata terrapenis, low of Abbreviata sp. have been reported from C. frequencies of these insects in the diets of C. sexlineatus by McAllister, Trauth, and Conn tigris from northern populations might account (1991). Larvae of Abbreviata sp. have also for the ahsence of A. terropenis in the studies been reported from the crotaphytid lizard of these populations by Grundmann (1959), Crotaphytus collaris and the phrynosomatid Babero and Matthias (1967), and Lyon (1986). 1997] NOTES 275 TABLE 2. Reports of Oochoristica biviteUobata, Phnryngodon warner£, and Thubunaea cnemidophorus from teiicl lizards. Helminth Host Locality Prevalence Reference Oochoristica biviteUobata Cnemidophorus burn Arizona 1;57 (2%) Goldberg and Bursey 1989 C. dixoni Texas 9158 (16%) McAllister, Cordes, and Walker 1991 C. exsanguis New Mexico, Texas 7/87 (8%) McAllister 199Qc C. flageUicaudus New Mexico 5/2:3 (22%) McAllister 1992 C. gularis New Mexico, Texas 3/289 (1%)
Recommended publications
  • Life History of the Marbled Whiptail Lizard Aspidoscelis Marmorata from the Central Chihuahuan Desert, Mexico
    Acta Herpetologica 8(2): 81-91, 2013 Life history of the Marbled Whiptail Lizard Aspidoscelis marmorata from the central Chihuahuan Desert, Mexico Héctor Gadsden1, Gamaliel Castañeda2 1 Instituto de Ecología, A. C.-Centro Regional Chihuahua, Cubículo 29C, Miguel de Cervantes No. 120, Complejo Industrial Chihuahua, C. P. 31109, Chihuahua, Chihuahua, México. Corresponding author. E-mail: [email protected] 2 Facultad de Ciencias Biológicas. Universidad Juárez del Estado de Durango. Avenida Universidad s/n. Fraccionamiento Filadelfia. Gómez Palacio, 35070, Durango, México Submitted on 2012, 5th December; revised on 2013, 10th August; accepted on 2013, 3rd September. Abstract. The life history of a population of marbled whiptail lizard, Aspidoscelis marmorata, was examined from 1989 to 1994 in the sand dunes of the Biosphere Reserve of Mapimí, in Northern México. Lizards were studied using mark- recapture techniques. Reproduction in females occurred between May and August, with birth hatchlings matching the wet season in August. Reproductive activity was highest in the early wet season (July). Males and females reached adult size class at an average age of 1.7 years and 1.8 years, respectively. Body size of males attained an asymptote around 90 mm snout-vent length and females around 82 mm snout-vent length, at an age of approximately 3.6 years and 3.0 years, respectively. The density varied from 7 to 85 individuals / 1.0 ha. The Mexican population had late maturity, relatively long life expectancy, and fewer offspring. Overall, the observed data for A. marmorata and the expectations of life history theory for a late maturing species (K-rate selection) are in agreement.
    [Show full text]
  • Taxonomic Hypotheses and the Biogeography of Speciation in the Tiger Whiptail Complex (Aspidoscelis Tigris: Squamata, Teiidae)
    a Frontiers of Biogeography 2021, 13.2, e49120 Frontiers of Biogeography RESEARCH ARTICLE the scientific journal of the International Biogeography Society Taxonomic hypotheses and the biogeography of speciation in the Tiger Whiptail complex (Aspidoscelis tigris: Squamata, Teiidae) Tyler K. Chafin1* , Marlis R. Douglas1 , Whitney J.B. Anthonysamy1,2, Brian K. Sullivan3, James M. Walker1, James E. Cordes4, and Michael E. Douglas1 1 Department of Biological Sciences, University of Arkansas, Fayetteville, Arkansas, 72701, USA; 2 St. Louis College of Pharmacy, 4588 Parkview Place, St. Louis, Missouri, 63110, USA; 3 School of Mathematical and Natural Sciences, P. O. Box 37100, Arizona State University, Phoenix, Arizona, 85069, USA; 4 Division of Mathematics and Sciences, Louisiana State University, Eunice, Louisiana, 70535, USA. *Corresponding author: Tyler K. Chafin, [email protected] Abstract Highlights Biodiversity in southwestern North America has a complex 1. Phylogeographies of vertebrates within the biogeographic history involving tectonism interspersed southwestern deserts of North America have been with climatic fluctuations. This yields a contemporary shaped by climatic fluctuations imbedded within pattern replete with historic idiosyncrasies often difficult broad geomorphic processes. to interpret when viewed from through the lens of modern ecology. The Aspidoscelis tigris (Tiger Whiptail) 2. The resulting synergism drives evolutionary processes, complex (Squamata: Teiidae) is one such group in which such as an expansion of within-species genetic taxonomic boundaries have been confounded by a series divergence over time. Taxonomic inflation often of complex biogeographic processes that have defined results (i.e., an increase in recognized taxa due to the evolution of the clade. To clarify this situation, arbitrary delineations), such as when morphological we first generated multiple taxonomic hypotheses, divergences fail to juxtapose with biogeographic which were subsequently tested using mitochondrial hypotheses.
    [Show full text]
  • The Importance of Assessing Climate Change Vulnerability to Address Species Conservation Karen E
    Issues and Perspectives The Importance of Assessing Climate Change Vulnerability to Address Species Conservation Karen E. Bagne,* Megan M. Friggens, Sharon J. Coe, Deborah M. Finch U.S. Department of Agriculture Forest Service, Rocky Mountain Research Station, Albuquerque, New Mexico 87102 Present address of K.E. Bagne: Department of Biology, Kenyon College, Gambier, Ohio 43022 Abstract Species conservation often prioritizes attention on a small subset of ‘‘special status’’ species at high risk of extinction, but actions based on current lists of special status species may not effectively moderate biodiversity loss if climate change alters threats. Assessments of climate change vulnerability may provide a method to enhance identification of species at risk of extinction. We compared climate change vulnerability and lists of special status species to examine the adequacy of current lists to represent species at risk of extinction in the coming decades. The comparison was made for terrestrial vertebrates in a regionally important management area of the southwestern United States. Many species not listed as special status were vulnerable to increased extinction risk with climate change. Overall, 74% of vulnerable species were not included in lists of special status and omissions were greatest for birds and reptiles. Most special status species were identified as additionally vulnerable to climate change impacts and there was little evidence to indicate the outlook for these species might improve with climate change, which suggests that existing conservation efforts will need to be intensified. Current special status lists encompassed climate change vulnerability best if climate change was expected to exacerbate current threats, such as the loss of wetlands, but often overlooked climate-driven threats, such as exceeding physiological thresholds.
    [Show full text]
  • White Sands Department of the Interior White Sands National Monument
    National Park Service White Sands Department of the Interior White Sands National Monument Common Animal Species List NPS Photo/© Sally King Sally Photo/© NPS hite Sands National Monument is home to over 500 different animal Wspecies. Despite the harsh environment of the dunefield, these incredible creatures have learned to adapt and survive in this southern New Mexico desert. While many of these animals are nocturnal, there are still signs of their activity well into the daylight hours. Keep your eyes open and watch for evidence of the many animal species, both large and small, that call White Sands their home. Amphibians Commonly Seen: 6 Species Great Plains Toad Spadefoot Toads (three species) Reptiles Commonly Seen: 26 Species Lizards Snakes Bleached Earless Lizard Plains Blackhead Snake Collared Lizard Prarie Rattlesnake Desert Spiny Lizard Sonora Gopher Snake Horned Lizard (two species) Western Coachwhip Snake Little Striped Whiptail Lizard Western Diamondback Snake Long-nosed Leopard Lizard New Mexico Whiptail Lizard Southern Prarie Lizard Mammals Commonly Seen: 44 Species Apache Pocket Mouse Grey Fox Badger Kit Fox Blacktail Jackrabbit Kangaroo Rat Bobcat Oryx (African) Coyote Pallid Bat Deer Mouse Porcupine Desert Cottontail White-footed Mouse Desert Pocket Gopher Woodrat (three species) Fish White Sands Pupfish 1 Species Invertebrates Commonly Seen: 500+ Species Black Widow Nevada Buck Moth Caterpillar 100+ Families Camel Cricket Tarantula 12 Orders Carpenter Bee Tarantula Hawk Wasp Darkling Beetle White-Lined Sphinx Moth To learn more about White Sands, visit http://www.nps.gov/whsa The Mexican spadefoot toad is the breed and feed on insects. These official state amphibian of New amphibians lay eggs in the pools of Mexico and gets its name from the water that form during this rainy distinctive spade-like projections season.
    [Show full text]
  • Endoparasites Infecting Two Species of Whiptail Lizard (<I
    SHORT NOTES SHORT NOTES 1980; Ribas et al., 1995; 1998; Vrcibradic et al., 2000; Menezes et al., 2004). In this study we survey the en- doparasite faunas of two sympatric species of whiptail HERPETOLOGICAL JOURNAL, Vol. 15, pp. 133-137 (2005) lizards from Brazil, Cnemidophorus abaetensis Dias, ENDOPARASITES INFECTING TWO Rocha & Vrcibradic, 2002 and Cnemidophorus ocellifer (Spix, 1824). Cnemidophorus abaetensis is a recently SPECIES OF WHIPTAIL LIZARD described species whose geographic distribution is ap- (CNEMIDOPHORUS ABAETENSIS AND parently restricted to the northern coast of Bahia state C. OCELLIFER; TEIIDAE) IN A (Dias et al., 2002), whereas C. ocellifer is widespread in ‘RESTINGA’ HABITAT OF NORTH- South America south of the Amazonian region, from EASTERN BRAZIL north-eastern and central Brazil to Paraguay, Bolivia and northern Argentina (Vanzolini et al., 1980; Cei, EDUARDO JOSÉ R. DIAS, DAVOR VRCIBRADIC 1993). So far, nothing has been published about the AND CARLOS FREDERICO D. ROCHA endoparasites associated with these two species [in the study of Ribas et al., (1995) regarding nematodes of C. Setor de Ecologia, Instituto de Biologia, Universidade do ocellifer, the species under treatment is actually C. Estado do Rio de Janeiro, Rua São Francisco Xavier littoralis Rocha, Araújo, Vrcibradic & Costa, 2000, 524, 20550-011, Rio de Janeiro, RJ, Brazil which had not yet been formally described at the time We analysed the endoparasite fauna associated with (see Rocha et al., 2000a)]. two species of whiptail lizard (Cnemidophorus A total of 73 lizards (33 C. abaetensis and 40 C. abaetensis and C. ocellifer) from north-eastern Brazil. ocellifer) were collected by the first author with the aid Overall parasite prevalence was relatively low for both of elastic rubber bands at the coastal sand-dune species (18.2% in C.
    [Show full text]
  • Environmental Consequences
    5-Mile Zone Protective and Regulatory Pumping Unit RMP/EA Water Rights The use of water in the 5-mile zone is regulated by (1) a 1989 Reclamation memorandum that is based in part on Public Law 93-320, as amended by Public Law 96-336; (2) IBWC 242 Minute; (3) existing water contracts; and (4) all applicable Federal and State regulations. Public Law 96-336 states that no contract shall be entered into that will impair the ability of the United States to continue to deliver to Mexico, on the Colorado River downstream from Morelos Dam, approximately 140,000 acre-feet of water annually, consistent with the terms contained in IBWC 242 Minute. Therefore, any request for water use from the study area would be subject to these limitations. Environmental Consequences Increased pumping from the aquifer, which could occur under alternatives that allow for development or land transfers or exchanges that would use or require more water, would affect groundwater availability in the study area. Some water use could occur in the 5-mile zone, west of the study area and outside of Reclamation’s jurisdiction, such as near the city of San Luis. Some elements of the alternatives could also affect groundwater quality. Following are the anticipated effects of each alternative. Alternative A Under Alternative A, if groundwater were used to meet the water needs of new developments, the aquifer could be lowered. However, the quantities needed should not adversely affect Reclamation=s ability to meet its water delivery obligations to Mexico unless total pumpage for the 5-mile zone approaches 160,000 acre-feet per year, the limit stipulated by IBWC 242 Minute.
    [Show full text]
  • Inventory of Amphibians and Reptiles at Death Valley National Park
    Inventory of Amphibians and Reptiles at Death Valley National Park Final Report Permit # DEVA-2003-SCI-0010 (amphibians) and DEVA-2002-SCI-0010 (reptiles) Accession # DEVA- 2493 (amphibians) and DEVA-2453 (reptiles) Trevor B. Persons and Erika M. Nowak Common Chuckwalla in Greenwater Canyon, Death Valley National Park (TBP photo). USGS Southwest Biological Science Center Colorado Plateau Research Station Box 5614, Northern Arizona University Flagstaff, Arizona 86011 May 2006 Death Valley Amphibians and Reptiles_____________________________________________________ ABSTRACT As part of the National Park Service Inventory and Monitoring Program in the Mojave Network, we conducted an inventory of amphibians and reptiles at Death Valley National Park in 2002- 2004. Objectives for this inventory were to: 1) Inventory and document the occurrence of reptile and amphibian species occurring at DEVA, primarily within priority sampling areas, with the goal of documenting at least 90% of the species present; 2) document (through collection or museum specimen and literature review) one voucher specimen for each species identified; 3) provide a GIS-referenced list of sensitive species that are federally or state listed, rare, or worthy of special consideration that occur within priority sampling locations; 4) describe park-wide distribution of federally- or state-listed, rare, or special concern species; 5) enter all species data into the National Park Service NPSpecies database; and 6) provide all deliverables as outlined in the Mojave Network Biological Inventory Study Plan. Methods included daytime and nighttime visual encounter surveys, road driving, and pitfall trapping. Survey effort was concentrated in predetermined priority sampling areas, as well as in areas with a high potential for detecting undocumented species.
    [Show full text]
  • Standard Common and Current Scientific Names for North American Amphibians, Turtles, Reptiles & Crocodilians
    STANDARD COMMON AND CURRENT SCIENTIFIC NAMES FOR NORTH AMERICAN AMPHIBIANS, TURTLES, REPTILES & CROCODILIANS Sixth Edition Joseph T. Collins TraVis W. TAGGart The Center for North American Herpetology THE CEN T ER FOR NOR T H AMERI ca N HERPE T OLOGY www.cnah.org Joseph T. Collins, Director The Center for North American Herpetology 1502 Medinah Circle Lawrence, Kansas 66047 (785) 393-4757 Single copies of this publication are available gratis from The Center for North American Herpetology, 1502 Medinah Circle, Lawrence, Kansas 66047 USA; within the United States and Canada, please send a self-addressed 7x10-inch manila envelope with sufficient U.S. first class postage affixed for four ounces. Individuals outside the United States and Canada should contact CNAH via email before requesting a copy. A list of previous editions of this title is printed on the inside back cover. THE CEN T ER FOR NOR T H AMERI ca N HERPE T OLOGY BO A RD OF DIRE ct ORS Joseph T. Collins Suzanne L. Collins Kansas Biological Survey The Center for The University of Kansas North American Herpetology 2021 Constant Avenue 1502 Medinah Circle Lawrence, Kansas 66047 Lawrence, Kansas 66047 Kelly J. Irwin James L. Knight Arkansas Game & Fish South Carolina Commission State Museum 915 East Sevier Street P. O. Box 100107 Benton, Arkansas 72015 Columbia, South Carolina 29202 Walter E. Meshaka, Jr. Robert Powell Section of Zoology Department of Biology State Museum of Pennsylvania Avila University 300 North Street 11901 Wornall Road Harrisburg, Pennsylvania 17120 Kansas City, Missouri 64145 Travis W. Taggart Sternberg Museum of Natural History Fort Hays State University 3000 Sternberg Drive Hays, Kansas 67601 Front cover images of an Eastern Collared Lizard (Crotaphytus collaris) and Cajun Chorus Frog (Pseudacris fouquettei) by Suzanne L.
    [Show full text]
  • Collection, Trade, and Regulation of Reptiles and Amphibians of the Chihuahuan Desert Ecoregion
    Collection, Trade, and Regulation of Reptiles and Amphibians of the Chihuahuan Desert Ecoregion Lee A. Fitzgerald, Charles W. Painter, Adrian Reuter, and Craig Hoover COLLECTION, TRADE, AND REGULATION OF REPTILES AND AMPHIBIANS OF THE CHIHUAHUAN DESERT ECOREGION By Lee A. Fitzgerald, Charles W. Painter, Adrian Reuter, and Craig Hoover August 2004 TRAFFIC North America World Wildlife Fund 1250 24th Street NW Washington DC 20037 Visit www.traffic.org for an electronic edition of this report, and for more information about TRAFFIC North America. © 2004 WWF. All rights reserved by World Wildlife Fund, Inc. ISBN 0-89164-170-X All material appearing in this publication is copyrighted and may be reproduced with permission. Any reproduction, in full or in part, of this publication must credit TRAFFIC North America. The views of the authors expressed in this publication do not necessarily reflect those of the TRAFFIC Network, World Wildlife Fund (WWF), or IUCN-The World Conservation Union. The designation of geographical entities in this publication and the presentation of the material do not imply the expression of any opinion whatsoever on the part of TRAFFIC or its supporting organizations concerning the legal status of any country, territory, or area, or of its authorities, or concerning the delimitation of its frontiers or boundaries. The TRAFFIC symbol copyright and Registered Trademark ownership are held by WWF. TRAFFIC is a joint program of WWF and IUCN. Suggested citation: Fitzgerald, L.A., et al. 2004. Collection, Trade, and Regulation of Reptiles and Amphibians of the Chihuahuan Desert Ecoregion. TRAFFIC North America. Washington D.C.: World Wildlife Fund.
    [Show full text]
  • Monitoring Science and Technology Symposium
    Herpetological Communities of the Middle Rio Grande Bosque: What Do We Know, What Should We Know, and Why? Alice L. Chung-MacCoubrey, Research Wildlife Biologist, USDA Forest Service, Rocky Mountain Research Station, Albuquerque, NM Heather L. Bateman, Graduate Student, Department of Biology, University of New Mexico, Albuquerque, NM Abstract—Amphibians and reptiles (herpetofauna) play important roles within eco- systems. Similar to many birds and mammals, they are major consumers of terrestrial arthropods. However, amphibians and reptiles are more efficient at converting food into biomass and are a higher quality food source for predators. Recent declines in some herpetofaunal populations have stimulated a greater overall interest in the monitoring of these populations. Although studies have examined the use of exotic plant-invaded ecosystems by birds and mammals, few have focused on the herpetofaunal community. Specifically, there is little information on the ecology and management of reptiles and amphibians within riparian cottonwood forest (bosque) along the Middle Rio Grande in New Mexico. Invasion by exotic plant species and accumulation of woody debris have led to high fuel loadings and thus the risk of catastrophic fire in the bosque. Thus, land managers are interested in removing exotics and reducing fuels by various techniques. To effectively manage habitat and make sound decisions, managers must understand how various fuels reduction treatments affect wildlife communities, including the dis- tribution, abundance, and ecology of amphibian and reptile populations. In 1999, the U.S. Forest Service- Rocky Mountain Research Station initiated a study to monitor and evaluate the response of vegetation and wildlife to three fuel reduction treatments in the Middle Rio Grande bosque.
    [Show full text]
  • (Revised with Costs), Petrified Forest National Park
    National Park Service U.S. Department of the Interior Natural Resource Stewardship and Science Natural Resource Condition Assessment Petrified Forest National Park (Revised with Costs) Natural Resource Report NPS/PEFO/NRR—2020/2186 The production of this document cost $ 112,132, including costs associated with data collection, processing, analysis, and subsequent authoring, editing, and publication. ON THE COVER Milky Way over Battleship Rock, Petrified Forest National Park Jacob Holgerson, NPS Natural Resource Condition Assessment Petrified Forest National Park (Revised with Costs) Natural Resource Report NPS/PEFO/NRR—2020/2186 J. Judson Wynne1 1 Department of Biological Sciences Merriam-Powell Center for Environmental Research Northern Arizona University Box 5640 Flagstaff, AZ 86011 November 2020 U.S. Department of the Interior National Park Service Natural Resource Stewardship and Science Fort Collins, Colorado The National Park Service, Natural Resource Stewardship and Science office in Fort Collins, Colorado, publishes a range of reports that address natural resource topics. These reports are of interest and applicability to a broad audience in the National Park Service and others in natural resource management, including scientists, conservation and environmental constituencies, and the public. The Natural Resource Report Series is used to disseminate comprehensive information and analysis about natural resources and related topics concerning lands managed by the National Park Service. The series supports the advancement of science, informed decision-making, and the achievement of the National Park Service mission. The series also provides a forum for presenting more lengthy results that may not be accepted by publications with page limitations. All manuscripts in the series receive the appropriate level of peer review to ensure that the information is scientifically credible, technically accurate, appropriately written for the intended audience, and designed and published in a professional manner.
    [Show full text]
  • Projections of Future Suitable Bioclimatic Conditions of Parthenogenetic Whiptails
    climate Article Projections of Future Suitable Bioclimatic Conditions of Parthenogenetic Whiptails Guillermo Alvarez 1, Eric Ariel L. Salas 2,*, Nicole M. Harings 2 and Kenneth G. Boykin 2 1 Department of Biological Sciences, The University of Texas at El Paso, El Paso, TX 79968, USA; [email protected] 2 Department of Fish, Wildlife and Conservation Ecology, New Mexico State University, Las Cruces, NM 88003, USA; [email protected] (N.M.H.); [email protected] (K.G.B.) * Correspondence: [email protected]; Tel.: +1-575-646-2691 Academic Editor: Yang Zhang Received: 23 December 2016; Accepted: 20 April 2017; Published: 22 April 2017 Abstract: This paper highlights the results of bioclimatic-envelope modeling of whiptail lizards belonging to the Aspidoscelis tesselata species group and related species. We utilized five species distribution models (SDM) including Generalized Linear Model, Random Forest, Boosted Regression Tree, Maxent and Multivariate Adaptive Regression Splines to develop the present day distributions of the species based on climate-driven models alone. We then projected future distributions of whiptails using data from four climate models run according to two greenhouse gas concentration scenarios (RCP 4.5 and RCP 8.5). Results of A. tesselata species group suggested that climate change will negatively affect the bioclimatic habitat and distribution of some species, while projecting gains in suitability for others. Furthermore, when the species group was analyzed together, climate projections changed for some species compared to when they were analyzed alone, suggesting significant loss of syntopic areas where suitable climatic conditions for more than two species would persist. In other words, syntopy within members of the species group will be drastically reduced according to future bioclimatic suitability projections in this study.
    [Show full text]