Chihuahuan Desert Fauna: Effects on Ecosystem Properties
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Pima County Plant List (2020) Common Name Exotic? Source
Pima County Plant List (2020) Common Name Exotic? Source McLaughlin, S. (1992); Van Abies concolor var. concolor White fir Devender, T. R. (2005) McLaughlin, S. (1992); Van Abies lasiocarpa var. arizonica Corkbark fir Devender, T. R. (2005) Abronia villosa Hariy sand verbena McLaughlin, S. (1992) McLaughlin, S. (1992); Van Abutilon abutiloides Shrubby Indian mallow Devender, T. R. (2005) Abutilon berlandieri Berlandier Indian mallow McLaughlin, S. (1992) Abutilon incanum Indian mallow McLaughlin, S. (1992) McLaughlin, S. (1992); Van Abutilon malacum Yellow Indian mallow Devender, T. R. (2005) Abutilon mollicomum Sonoran Indian mallow McLaughlin, S. (1992) Abutilon palmeri Palmer Indian mallow McLaughlin, S. (1992) Abutilon parishii Pima Indian mallow McLaughlin, S. (1992) McLaughlin, S. (1992); UA Abutilon parvulum Dwarf Indian mallow Herbarium; ASU Vascular Plant Herbarium Abutilon pringlei McLaughlin, S. (1992) McLaughlin, S. (1992); UA Abutilon reventum Yellow flower Indian mallow Herbarium; ASU Vascular Plant Herbarium McLaughlin, S. (1992); Van Acacia angustissima Whiteball acacia Devender, T. R. (2005); DBGH McLaughlin, S. (1992); Van Acacia constricta Whitethorn acacia Devender, T. R. (2005) McLaughlin, S. (1992); Van Acacia greggii Catclaw acacia Devender, T. R. (2005) Acacia millefolia Santa Rita acacia McLaughlin, S. (1992) McLaughlin, S. (1992); Van Acacia neovernicosa Chihuahuan whitethorn acacia Devender, T. R. (2005) McLaughlin, S. (1992); UA Acalypha lindheimeri Shrubby copperleaf Herbarium Acalypha neomexicana New Mexico copperleaf McLaughlin, S. (1992); DBGH Acalypha ostryaefolia McLaughlin, S. (1992) Acalypha pringlei McLaughlin, S. (1992) Acamptopappus McLaughlin, S. (1992); UA Rayless goldenhead sphaerocephalus Herbarium Acer glabrum Douglas maple McLaughlin, S. (1992); DBGH Acer grandidentatum Sugar maple McLaughlin, S. (1992); DBGH Acer negundo Ashleaf maple McLaughlin, S. -
Vascular Plant and Vertebrate Inventory of Montezuma Castle National Monument Vascular Plant and Vertebrate Inventory of Montezuma Castle National Monument
Schmidt, Drost, Halvorson In Cooperation with the University of Arizona, School of Natural Resources Vascular Plant and Vertebrate Inventory of Montezuma Castle National Monument Vascular Plant and Vertebrate Inventory of Montezuma Castle National Monument Plant and Vertebrate Vascular U.S. Geological Survey Southwest Biological Science Center 2255 N. Gemini Drive Flagstaff, AZ 86001 Open-File Report 2006-1163 Southwest Biological Science Center Open-File Report 2006-1163 November 2006 U.S. Department of the Interior U.S. Geological Survey National Park Service In cooperation with the University of Arizona, School of Natural Resources Vascular Plant and Vertebrate Inventory of Montezuma Castle National Monument By Cecilia A. Schmidt, Charles A. Drost, and William L. Halvorson Open-File Report 2006-1163 November, 2006 USGS Southwest Biological Science Center Sonoran Desert Research Station University of Arizona U.S. Department of the Interior School of Natural Resources U.S. Geological Survey 125 Biological Sciences East National Park Service Tucson, Arizona 85721 U.S. Department of the Interior Dirk Kempthorne, Secretary U.S. Geological Survey Mark Myers, Director U.S. Geological Survey, Reston, Virginia: 2006 Note: This document contains information of a preliminary nature and was prepared primarily for internal use in the U.S. Geological Survey. This information is NOT intended for use in open literature prior to publication by the investigators named unless permission is obtained in writing from the investigators named and from the Station Leader. Suggested Citation Schmidt, C. A., C. A. Drost, and W. L. Halvorson 2006. Vascular Plant and Vertebrate Inventory of Montezuma Castle National Monument. USGS Open-File Report 2006-1163. -
Range Condition Influences on Chihuahuan Desert Cattle and Jackrabbit Diets
J. Range Manage. 46:296-301, July 1993 Range condition influences on Chihuahuan Desert cattle and jackrabbit diets ALIPAYOU DANIEL, JERRY L. HOLECHEK, RAUL VALDEZ, ACKIM TEMBO, LEWIS SAIWANA, MICHAEL RUSCO, AND MANUAL CARDENAS Authors are graduate research assistant (deceased) andprofessor, Dept. of Animal and Range Sciences; professor, Dept. of Fishery and Wildlife Sciences; graduate research assistant, graduate research assistant, andgraduate research assistant, Dept. of Animal and Range Sciences; and professor, Dept. of Exp. Sta. New Mexico State Univ., Las Cruces, 88003. Abstract Knowledge of comparative diet selection by cattle and black- desert rangeland. The objective of this study was to determine the tailed jackrabbits (Lepus californicus) would permit better estima- influence of range condition on jackrabbit and cattle diets on tion of grazing capacity on Chibuabunn desert ranges. Cattle and Chihuahuan desert rangelands. Diet composition of both species black-tailed jackrabbit diets were evaluated seasonally on good was quantified with microhistological analysis of fecal material. and fair condition ranges over a Z-year period. Fecal samples Material and Methods analyzed by the microhistological technique were used to deter- mine diets of both animals. Key forage species in cattle diets were The 2 study ranges are located 37 km north of Las Cruces, N.M. dropseeds (Sporobolus sp.), black grama (Bouteloua eriopoda Their western boundaries are adjacent to Interstate 25. The study Torr.), leatherweed croton (CrotonpottsiiLam.), and bush muhly area is on the southern end of the Jornada Del Muerto Plain, a (Muhlenbergiaporteri Scribn.). Key forage species in jackrabbit desert basin which varies from 1,188 to I,37 1 m elevation with level diets were honey mesquite (Prosopis glandulosa Torr.), cactus or gently rolling hills. -
Literature Cited
Literature Cited Robert W. Kiger, Editor This is a consolidated list of all works cited in volumes 19, 20, and 21, whether as selected references, in text, or in nomenclatural contexts. In citations of articles, both here and in the taxonomic treatments, and also in nomenclatural citations, the titles of serials are rendered in the forms recommended in G. D. R. Bridson and E. R. Smith (1991). When those forms are abbre- viated, as most are, cross references to the corresponding full serial titles are interpolated here alphabetically by abbreviated form. In nomenclatural citations (only), book titles are rendered in the abbreviated forms recommended in F. A. Stafleu and R. S. Cowan (1976–1988) and F. A. Stafleu and E. A. Mennega (1992+). Here, those abbreviated forms are indicated parenthetically following the full citations of the corresponding works, and cross references to the full citations are interpolated in the list alphabetically by abbreviated form. Two or more works published in the same year by the same author or group of coauthors will be distinguished uniquely and consistently throughout all volumes of Flora of North America by lower-case letters (b, c, d, ...) suffixed to the date for the second and subsequent works in the set. The suffixes are assigned in order of editorial encounter and do not reflect chronological sequence of publication. The first work by any particular author or group from any given year carries the implicit date suffix “a”; thus, the sequence of explicit suffixes begins with “b”. Works missing from any suffixed sequence here are ones cited elsewhere in the Flora that are not pertinent in these volumes. -
Germination Patterns of a Suite of Semiarid Grassland Forbs from Central New Mexico
REFEREED RESEARCH Germination patterns of a suite of semiarid grassland forbs from central New Mexico Rosemary L Pendleton and Burton K Pendleton ABSTRACT We examined the germination response of 21 forb species collected from semiarid grasslands of central New Mexico. After-ripened seeds were subjected to 1 of 3 treat - ments: 1) no treatment; 2) a 3-wk stratification at 5 °C (cold-moist treatment); or 3) a 3-wk warm-moist treatment at 30 °C. All seeds were incubated under an alternating 10/20 °C temperature regime for 6 wk following treatment. Temperature regime had a significant effect on 13 of the 21 species. Twelve species responded positively to the warm-moist treatment, germinating during or following 3 wk at 30 °C. Six species were largely nondormant, germinating under all 3 treatment regimes, and 5 species did not germinate to an appreciable degree under any of the 3 treatment regimes. Ten species responded negatively to the 3-wk stratification, and in only one case was germination slightly improved by the 3-wk stratification. A subsequent 12- wk stratification treatment did, however, increase germination for 3 of the 5 dormant species. These results indicate that, while some species may require stratification, many southwestern grassland forbs are adapted to the combination of moisture and temperature associated with a monsoonal regime, that is, a warm-moist period. Sum - mer, rather than fall, sowing is recommended as it will provide the benefit of dor - mancy-breaking dry heat followed by warm-moist conditions of the July to Septem - ber monsoon. Pendleton RL, Pendleton BK. -
Blueprint Earth Field Guide
Blueprint Earth Field Guide Plants Note that this list is not comprehensive. If you are uncertain of the identification you’ve made of a particular plant, take a picture and a voucher (when possible) and discuss your observations with the Supervisory Scientist team. Trees & Bushes Joshua tree - Yucca brevifolia Parry saltbush - Atriplex parryi Mojave sage - Salvia pachyphylla Creosote bush - Larrea tridentata Mojave yucca - Yucca schidigera Chaparral yucca - Yucca whipplei Torr. Desert holly - A. hymenelytra Torr. Manzanita - Arctostaphylos Adans. Cacti Barrel cactus - Ferocactus cylindraceus var. Jumping cholla - Cylindropuntia bigelovii Engelm. lecontei Foxtail cactus - Escobaria vivipara var. alversonii Silver cholla - Opuntia echinocarpa var. echinocarpa Pencil cholla - Opuntia ramosissima Cottontop cactus - Echinocactus polycephalus Hedgehog cactus - Echinocereus engelmanii var. Mojave mound cactus - Echinocereeus chrysocentrus triglochiderus var. mojavensis Beavertail cactus - Opuntia basilaris Grasses Indian Rice Grass - Oryzopsis hymenoides Bush Muhly - Muhlenbergia porteri Fluff Grass - Erioneuron pulchella Red Brome - Bromus rubens Desert Needle - Stipa speciosa Big Galleta – Hilaria rigida Flowers Wooly Amsonia Chuparosa Amsonia tomentosa Justicia californica Brittlebush Encelia farinosa Chia Salvia columbariae Sacred Datura Desert Calico Datura wrightii Loeseliastrum matthewsii Bigelow Coreopsis Desert five-spot Coreopsis bigelovii Eremalche rotundifolia - Desert Chicory Rafinesquia Desert Lupine neomexicana Desert Larkspur -
Influence of Small-Scale Disturbances by Kangaroo Rats on Chihuahuan Desert Ants
Oecologia (2000) 125:142–149 © Springer-Verlag 2000 R.L. Schooley · B.T. Bestelmeyer · J.F. Kelly Influence of small-scale disturbances by kangaroo rats on Chihuahuan Desert ants Received: 11 October 1999 / Accepted: 11 March 2000 Abstract Banner-tailed kangaroo rats (Dipodomys Introduction spectabilis) are prominent ecosystem engineers that build large mounds that influence the spatial structuring Natural disturbances create environmental patchiness of fungi, plants, and some ground-dwelling animals. that can strongly influence organisms and ecological Ants are diverse and functionally important components processes (Watt 1947; Wiens 1976; Pickett and White of arid ecosystems; some species are also ecosystem en- 1985; Turner 1987). In particular, patch disturbances can gineers. We investigated the effects of patch disturbances affect patterns of species richness and community struc- created by D. spectabilis mounds on ant assemblages in ture by increasing habitat heterogeneity and permitting a Chihuahuan Desert grassland in southern New Mexico the coexistence of species with differing competitive and by using pitfall traps in a paired design (mound vs. ma- colonization abilities (Horn and MacArthur 1972; trix). Although the disturbances did not alter species Denslow 1985; Huston 1994). In terrestrial systems, the richness or harbor unique ant communities relative to the disturbances created by the activities of burrowing mam- matrix, they did alter species composition; the abun- mals are important generators of spatial heterogeneity dances of 6 of 26 species were affected. The distur- (Huntley and Inouye 1988; Whicker and Detling 1988; bances might also act to disrupt spatial patterning of ants Hansell 1993). These effects are especially evident in ar- caused by other environmental gradients. -
Ground Covers for Arizona Landscapes
Cooperative Extension Ground Covers for Arizona Landscapes ELIZABETH DAVISON Lecturer Department of Plant Sciences AZ1110 April 1999 Contents Why Use a Ground Cover? .......................................................................................................... 3 Caveats .......................................................................................................................................... 3 How to Select a Ground Cover ................................................................................................... 3 General Planting Instructions ...................................................................................................... 4 Care of Established Plantings....................................................................................................... 4 Water ............................................................................................................................................. 5 Exposure ........................................................................................................................................ 5 Plant Climate (Hardiness) Zones ................................................................................................ 5 Plant Climate Zone Map .............................................................................................................. 6 Plant List ........................................................................................................................................ 7 Plant Name Cross Reference -
List of Approved Plants
APPENDIX "X" – PLANT LISTS Appendix "X" Contains Three (3) Plant Lists: X.1. List of Approved Indigenous Plants Allowed in any Landscape Zone. X.2. List of Approved Non-Indigenous Plants Allowed ONLY in the Private Zone or Semi-Private Zone. X.3. List of Prohibited Plants Prohibited for any location on a residential Lot. X.1. LIST OF APPROVED INDIGENOUS PLANTS. Approved Indigenous Plants may be used in any of the Landscape Zones on a residential lot. ONLY approved indigenous plants may be used in the Native Zone and the Revegetation Zone for those landscape areas located beyond the perimeter footprint of the home and site walls. The density, ratios, and mix of any added indigenous plant material should approximate those found in the general area of the native undisturbed desert. Refer to Section 8.4 and 8.5 of the Design Guidelines for an explanation and illustration of the Native Zone and the Revegetation Zone. For clarity, Approved Indigenous Plants are considered those plant species that are specifically indigenous and native to Desert Mountain. While there may be several other plants that are native to the upper Sonoran Desert, this list is specific to indigenous and native plants within Desert Mountain. X.1.1. Indigenous Trees: COMMON NAME BOTANICAL NAME Blue Palo Verde Parkinsonia florida Crucifixion Thorn Canotia holacantha Desert Hackberry Celtis pallida Desert Willow / Desert Catalpa Chilopsis linearis Foothills Palo Verde Parkinsonia microphylla Net Leaf Hackberry Celtis reticulata One-Seed Juniper Juniperus monosperma Velvet Mesquite / Native Mesquite Prosopis velutina (juliflora) X.1.2. Indigenous Shrubs: COMMON NAME BOTANICAL NAME Anderson Thornbush Lycium andersonii Barberry Berberis haematocarpa Bear Grass Nolina microcarpa Brittle Bush Encelia farinosa Page X - 1 Approved - February 24, 2020 Appendix X Landscape Guidelines Bursage + Ambrosia deltoidea + Canyon Ragweed Ambrosia ambrosioides Catclaw Acacia / Wait-a-Minute Bush Acacia greggii / Senegalia greggii Catclaw Mimosa Mimosa aculeaticarpa var. -
Download PDF File
Myrmecological News 19 Digital supplementary material Digital supplementary material to DEJEAN, A., CORBARA, B., ROUX, O. & ORIVEL, J. 2014: The antipredatory behaviours of Neotropical ants towards army ant raids (Hymenoptera: Formicidae). – Myrmeco- logical News 19: 17-24. Appendix 1: Synthesis of the reactions of different ant species when faced with New World army ants. The size of the ecitonine colonies varies as follows: Eciton burchellii WESTWOOD, 1842: up to 650,000 workers (FRANKS 1985) and E. hamatum FABRICIUS, 1782: up to 250,000 workers (RETTENMEYER & al. 1983); Neivamyrmex nigrescens (CRESSON, 1872): 150,000 to 200,000 (SCHNEIRLA 1958); Nomamyrmex esenbeckii (WESTWOOD, 1842): 700,000 workers (RETTENMEYER 1963); Labidus praedator (F. SMITH, 1858): one million workers (HÖLLDOBLER & WILSON 1990). SF: subfamily; Dol: Dolichoderinae; Eci: Ecitoninae; Ect: Ectatomminae; Form: Formicinae; Myr: Myrmicinae; Par: Paraponerinae; Ps; Pseudomyrmecinae; Pon: Ponerinae. Raided ant species SF Army ant Details of the reactions References Avoided by army ants Acromyrmex coronatus Myr Eciton bur- Encountered Acromyrmex forager immobilized, crouched, SAN JUAN (2002) FABRICIUS, 1804 chellii (WEST- was antennated, then it moved; Eciton seemed repulsed. WOOD, 1842) Atta cephalotes (LINNAEUS, Myr Eciton No aggressiveness during the encounters. Once the raid RETTENMEYER 1758), Atta spp. burchellii traversed the Atta nest. (1963), this study Odontomachus spp. Pon Eciton hama- Avoided; seldom retrieved workers. RETTENMEYER & tum (FABRICI- al. (1983) US, 1782) Crematogaster spp. Myr Eciton spp. Avoided by Eciton as well as Neivamyrmex pilosus. RETTENMEYER & al. (1983) Myrmecocystus mimicus Myr Neivamyrmex Avoided; even F. pruinosus climbed over the raiders, MIRENDA & al. WHEELER, 1908, nigrescens which remained motionless. (1980) Forelius pruinosus (ROGER, Dol (CRESSON, 1863) 1872) Solenopsis xyloni MCCOOK, Myr Neivamyrmex Avoided but was raided by Neivamyrmex harrisi (speci- MIRENDA & al. -
Chapter 3 Climate Change and Arthropods
Chapter 3 Climate Change and Arthropods: Pollinators, Herbivores, and Others Sandra L. Brantley1 and Paulette L. Ford2 1 Museum of Southwestern Biology, University of New Mexico, Albuquerque, New Mexico 2 U.S. Forest Service, Rocky Mountain Research Station; Grassland, Shrubland, and Desert Ecosystems Program; Forestry Sciences Laboratory, Albuquerque, New Mexico Executive Summary The Interior West is rich in arthropod diversity because of its varied topography, which provides a wide range of elevations and levels of isolation for these small ani- mals (Parmenter and others 1995). Some taxa are known rather well, such as butterflies and tiger beetles, but we have little information on many groups, which are known only from a few locations although they are probably more widespread. Arthropods live at large to small scales (e.g., migrating butterflies crossing countries to habitat special- ists on rock outcrops or sand dunes). They may be generalists or specialists, vagile or sedentary, and have immature life stages that are similar or different from the adult (Triplehorn and Johnson 2005). Predicted climate changes for the interior of North America, particularly the western portion, include: • drier summers, • increased precipitation outside the summer season, and • increased frequency of extreme events such as heat waves. Arthropods are ectothermic, so the temperature increases associated with global warming directly affect their development time, usually by decreasing the time needed for immature stages to become adults. This allows not only more generations per year in a given habitat, but it also opens new habitat for colonization because minimum temperatures no longer exclude arthropods (Crozier 2003; Robinet and Roques 2010). -
Yu-Feng Hsu and Jerry A. Powell
Phylogenetic Relationships within Heliodinidae and Systematics of Moths Formerly Assigned to Heliodines Stainton (Lepidoptera: Yponomeutoidea) Yu-Feng Hsu and Jerry A. Powell Phylogenetic Relationships within Heliodinidae and Systematics of Moths Formerly Assigned to Heliodines Stainton (Lepidoptera: Yponomeutoidea) Yu-Feng Hsu and Jerry A. Powell UNIVERSITY OF CALIFORNIA PRESS Berkeley • Los Angeles • London UNIVERSITY OF CALIFORNIA PUBLICATIONS IN ENTOMOLGY Editorial Board: Penny Gullan, Bradford A. Hawkins, John Heraty, Lynn S. Kimsey, Serguei V. Triapitsyn, Philip S. Ward, Kipling Will Volume 124 UNIVERSITY OF CALIFORNIA PRESS BERKELEY AND LOS ANGELES, CALIFORNIA UNIVERSITY OF CALIFORNIA PRESS, LTD. LONDON, ENGLAND © 2005 BY THE REGENTS OF THE UNIVERSITY OF CALIFORNIA PRINTED IN THE UNITED STATES OF AMERICA Library of Congress Cataloging-in-Publication Data Hsu, Yu-Feng, 1963– Phylogenetic relationships within Heliodinidae and systematics of moths formerly assigned to Heliodines Stainton (Lepidoptera: Yponomeutoidea) / Yu-Feng Hsu and Jerry A. Powell. p. cm. Includes bibliographical references. ISBN 0-520-09847-1 (paper : alk. paper) — (University of California publications in entomology ; 124) 1. Heliodinidae—Classification. 2. Heliodinidae—Phylogeny. I. Title. II. Series. QL561.H44 H78 595.78 22—dc22 2004058800 Manufactured in the United States of America The paper used in this publication meets the minimum requirements of ANSI/NISO Z39.48-1992 (R 1997) (Permanence of Paper). Contents Acknowledgments, ix Abstract, xi Introduction ...................................................... 1 Problems in Systematics of Heliodinidae and a Historical Review ............ 4 Material and Methods ............................................ 6 Specimens and Depositories, 6 Dissections and Measurements, 7 Wing Venation Preparation, 7 Scanning Electron Microscope Preparation, 8 Species Discrimination and Description, 8 Larval Rearing Procedures, 8 Phylogenetic Methods, 9 Phylogeny of Heliodinidae ........................................