LONG-EARED OWL (Asio Otus) Kevin Hunting
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Biology Assessment Plan Spring 2019
Biological Sciences Department 1 Biology Assessment Plan Spring 2019 Task: Revise the Biology Program Assessment plans with the goal of developing a sustainable continuous improvement plan. In order to revise the program assessment plan, we have been asked by the university assessment committee to revise our Students Learning Outcomes (SLOs) and Program Learning Outcomes (PLOs). Proposed revisions Approach: A large community of biology educators have converged on a set of core biological concepts with five core concepts that all biology majors should master by graduation, namely 1) evolution; 2) structure and function; 3) information flow, exchange, and storage; 4) pathways and transformations of energy and matter; and (5) systems (Vision and Change, AAAS, 2011). Aligning our student learning and program goals with Vision and Change (V&C) provides many advantages. For example, the V&C community has recently published a programmatic assessment to measure student understanding of vision and change core concepts across general biology programs (Couch et al. 2019). They have also carefully outlined student learning conceptual elements (see Appendix A). Using the proposed assessment will allow us to compare our student learning profiles to those of similar institutions across the country. Revised Student Learning Objectives SLO 1. Students will demonstrate an understanding of core concepts spanning scales from molecules to ecosystems, by analyzing biological scenarios and data from scientific studies. Students will correctly identify and explain the core biological concepts involved relative to: biological evolution, structure and function, information flow, exchange, and storage, the pathways and transformations of energy and matter, and biological systems. More detailed statements of the conceptual elements students need to master are presented in appendix A. -
Diet of Three Sympatric Owls in Steppe Habitats of Eastern Kazakhstan
256 SHORT COMMUNICATIONS VOL. 37, NO. 3 Comfin en Espafia y Portugal (I Censo Coordinado). (Oypaetusbarbaras) en Catalufia (NE Espafia) e imph- Afio 2000. Monograf/a nø 8. SEO/BirdLife, Madrid, caciones sobre su conservacitn. Do•ana Acta Vertebr Spain. 24:235-243. DONAZAR,J.A. 1993. Los buitres ib•ricos. Biologla y con- PAm½ER,P.G., T.A. WAITE, AND M.D. DECKER. 1995. Kin- servacitn. J.M. Reyero, Madrid, Spain. ship and associationin communally roosting black --, O. CEBALLOS,AND J.L. TELLA. 1996. Communal vultures. Anita. Behar. 49:395-401. roostsof EgyptianVultures (Neophronpercnopterus): dy- RABENOLD, P.P. 1983. The communal roost in Black and namics and implicationsfor the speciesconservation. Turkey Vultures:an Information Center?Pages 303- Pages 189-201 in J. Muntaner and J. Mayol [EDS.], 321 in S.R. Wilbur and J.A. Jackson [EDS.], Vulture Biologia y Conservaci0n de las Rapaces Mediterr•- biology and management. Univ. of California Press, neas. Monografias No. 4 de la SEO, Madrid, Spain. Berkeley, CA U.S.A. ß 1987. Recruitment to food in black vultures: ev- --, c.J. PAI,ACIOS,L. GANOOSO,O. CEBALLOS,M.J. GONZ./•LEZ,AND F. HIRALDO. 2002. Conservation status idence for following from communal roosts.Anita. Be- hay. 35:1775-1785. and limiting factorsin the endangeredpopulation of TELLA,J.L. 1991. Dormideros de alimoches en el Valle EgyptianVulture (Neophronpercnopterus) in the Canary Islands. Bid. Conserv. 107:89-98. Medio del Ebro. ActasI CongresoInternacional sobre Aves Carrofieras: 69-74. AEDENAT-CODA, Madrid, MAROAL•D^,A. 1997. Aparici6n de un dormidero comu- Spain. nal de Alimoche (Neophronpercnopterus) en Catalufia ß 2001. -
Controlling Pocket Gopher Damage to Conifer Seedlings D.S
FOREST PROTECTION EC 1255 • Revised May 2003 $2.50 Controlling Pocket Gopher Damage to Conifer Seedlings D.S. deCalesta, K. Asman, and N. Allen Contents ocket gophers (or just plain Gopher habits and habitat.............. 1 P “gophers”) damage conifer seed- Control program ........................... 2 lings on thousands of Identifying the pest ......................2 acres in Washington, Assessing the need for treatment ...3 Idaho, and Oregon Damage control techniques ...........3 annually. They invade clearcuts and Applying controls .......................... 7 clip (cut off) roots or Figure 1.—Typical Oregon pocket gopher. Christmas tree plantations .............7 girdle (remove bark from) the bases of conifer seedlings and saplings, causing significant economic losses. Forest plantations ........................ 7 This publication will help you design a program to reduce or eliminate Summary .................................... 8 gopher damage to seedlings and saplings in your forest plantation or Christmas tree farm. Sources of supply ......................... 8 First, we describe pocket gophers, their habits, and habitats. Then we For further information .................. 8 discuss procedures for controlling pocket gopher damages—control techniques, their effectiveness and hazard(s) to the environment, and their use under a variety of tree-growing situations. Gopher habits and habitat Three species of pocket gopher can damage conifer seedlings. The two smaller ones, the northern pocket gopher and the Mazama pocket gopher, are 5 to 9 inches long and brown with some white beneath the chin and belly. The northern gopher is found east of the Cascade Mountains in Oregon and Washington and in Idaho; the Mazama lives in Oregon and Washington west of the Cascades. David S. deCalesta, former Exten- The Camas pocket gopher is similar looking, but larger (10 to 12 inches) sion wildlife specialist, and Kim than the two others. -
Paleontological Resources of the Upper and Middle San Pedro Valley
Paleontological Resources of the Upper and Middle San Pedro Valley Robert D. McCord Arizona Museum of Natural History Geological setting Regional extension causing block faulting – creation of the Basin and Range ~15Ma Poorly developed drainage results in lakes in valley bottom ?-3.4 Ma Drainage develops with flow to north, marshes, ponds and lakes significant from time to time Early Pleistocene Saint David Formation ? – 3.4 million lakes, few fossils Well developed paleomagnetic timeframe – a first for terrestrial sediments! Succession of faunas from ~3 to 1.5 Ma Blancan to ? Irvingtonian NALMA Plants diatoms charophytes Equisetum (scouring rush) Ostracoda (aquatic crustaceans) Cypridopsis cf. vidua Limnocythere cf. staplini Limnocythere sp. Candona cf. renoensis Candona sp. A Candona sp. B ?Candonlella sp. ?Heterocypris sp. ?Cycloypris sp. Potamocypris sp. Cyprideis sp. Darwinula sp. Snails and a Clam Pisidium casertanum (clam) Fossaria dalli (aquatic snail) Lymnaea caperata (aquatic snail) Lymnaea cf. elodes (aquatic snail) Bakerilymnaea bulimoides (aquatic snail) Gyraulus parvus (aquatic snail) Promenetus exacuous (aquatic snail) Promenetus umbilicatellus (aquatic snail) Physa virgata (aquatic snail) Gastrocopta cristata (terrestrial snail) Gastrocopta tappaniana (terrestrial snail) Pupoides albilabris (terrestrial snail) Vertigo milium (terrestrial snail) Vertigo ovata (terrestrial snail) cf. Succinea (terrestrial snail) Deroceras aenigma (slug) Hawaila minuscula (terrestrial snail) Fish and Amphibians indeterminate small fish Ambystoma tigrinum (tiger salamander) Scaphiopus hammondi (spadefoot toad) Bufo alvarius (toad) Hyla eximia (tree frog) Rana sp. (leopard frog) Turtles and Lizards Kinosternon arizonense (mud turtle) Terrapene cf. ornata (box turtle) Gopherus sp. (tortoise) Hesperotestudo sp. (giant tortoise) Eumeces sp. (skink) “Cnemidophorus” sp. (whiptail lizard) Crotaphytus sp. (collared lizard) Phrynosoma sp. (horned lizard) Sceloporus sp. -
Mouse Models of Human Cancer
INVITATION ORGANIZERS The German-Israeli Cooperation in Cancer Research was Scientific Program Committee founded in 1976 and is the longest lasting scientific coop- Ministry of Science, DKFZ: Prof. Dr. Hellmut Augustin Technology and Space eration between Germany and Israel. To date 159 projects Israel: Prof. Dr. Eli Pikarsky, Prof. Dr. Varda Rotter have been funded. Beyond this, the cooperation has led to friendships between scientists of both countries and other partners (www.dkfz.de/israel). German-Israeli Cooperation in Cancer Research In 2013, the 6th German-Israeli Cancer Research School will DKFZ: Prof. Dr. Peter Angel take place in the Negev Desert in Israel. The focus will be on Israel: Dr. Ahmi Ben-Yehudah, Nurit Topaz mouse models of human cancer. Prominent Israeli and Ger- man scientists will present their latest advances in cancer Administrative Coordinator research. Dr. Barbara Böck Advanced preclinical tumor models have emerged as a criti- Scientific Coordinator of the Helmholtz Alliance cal bottleneck for both, the advancement of basic tumor Preclinical Comprehensive Cancer Center (PCCC) biology and for translational research. Aimed at overcom- ing this bottleneck, the speakers will highlight recent de- velopments in the field of mouse cancer models that better Contact Address MOST mimic the pathogenesis, the course and the response to Nurit Topaz therapy of human tumors. Ministry of Science, Technology and Space The format of the school will include lectures in the morn- P.O.Box 49100 ing and the late afternoon, framed by social activities. Dur- Jerusalem 91490, Israel ing the poster sessions, the participants are expected to phone: +972 2 5411157, fax: +972 2 5825725 give short presentations, highlighting their research proj- e-mail: [email protected] ects. -
Breeding Biology and Diet of the Ferruginous Hawk in South Dakota
Wilson Bull., 94(l), 1982, pp. 4654 BREEDING BIOLOGY AND DIET OF THE FERRUGINOUS HAWK IN SOUTH DAKOTA CHARLES L. BLAIR AND FRANK SCHITOSKEY, JR. The Ferruginous Hawk (Buteo regalis) is the largest North American buteo. It occurs throughout most of the western United States and breeds from Alberta to western Texas and from Washington to Arizona. In this study we investigated the breeding biology of the Ferruginous Hawks in northwest South Dakota, complimenting earlier studies by Weston (1969) in Utah, Olendorff (1973) in Colorado, Howard (1975) in Utah and Idaho, and Lokemoen and Duebbert (1976) in north-central South Dakota. STUDY AREA AND METHODS The study area encompassed about 7000 km ’ in northwest South Dakota, including all of Harding County. The area is semi-arid and has a mid-continental climate with long, cold winters and short, warm summers (Spuhler et al. 1971). Eighty-five percent of Harding County is rangeland dominated by western wheatgrass (Agropyron smithii) and needle grass (Stipa comata). Sagebrush (Artemesia spp.) occurs throughout the area and is widespread in the western third of the county. Small grain crops compose 9% of the area, pastureland and tame hay 3% and woodland 3%. Elevated table lands are dominated by ponderosa pine (Pinw ponderma) Savannah, whereas green ash (Fraxinus pennsylvanicas), willow (S&x spp.) and Siberian elm (Ulmas pumila) predominate in riparian areas and ravines. Two or more biologists conducted a daily census of birds on the study area in 1976 and 1977; Ferruginous Hawk studies began the day the first hawk was sighted. Active nests were located either during aerial surveys at altitudes of 150-175 m, or by ground searches from roads. -
A Type of Owl Called Asio Flammeus
ADW: Asio flammeus: Information Page I of 8 -i - • Structured Inquiry Searct Home > Kingdom Animalia Phylum Chordata A Subphylum Vertebrata 0 Class Aves > Order Strigiformes P Family Strigidae > Species Asio flammeus Asio flammeus short-eared owl Information Pictures Classification 2008/0/20 02 :22:23. 076 IJS/Eastern By Nathan Doan Geographic Range Kingdom: Animalia Phylum: Chordata Subphylum: Vertebrata Class: Aves Order: Strigiformes Family: Strigidae IGenus: Asio Species: Asio flammeus Short-eared owls are one of the world's most. widely distributed owls. They inhabit all of North and South America; this area includes the coast of the Arctic Ocean to Pantagonia. Short-eared owls can also be found on every continent except Australia and Antarctica. (Granlund et al., 1994; Welty, 1975;' Pearson, 1936) Biogeographic Regions: nearctic k (native CL); palearctic CL (native q); oriental Q. (native Q,); ethiopian CL (native k); neotropical q (native CL). Other Geographic Terms: cosmopolitan Q. Habitat One of the world's most widely distributed owls, Asio flammeus 'can be found throughout much of North America and Eurasia. These owls prefer to live inI marshes and bogs; they inhabit open, treeless areas. Their hunting and nesting habits Make them well suited to relatively flat land. This species is migratory but uses relativelY similar habitats during summer and winter. Short-eared owls have specialized eating habits and tend to stay http://animaldiversity.ummz.umich. edu/site/accounts/informationlAsio-flammeus.html 1/23/2008 ADW: Asio flammeus: Information Page 2 of 8 where they can find ample food. They will leave an area to find preferred prey rather than eat other animals. -
Northern Cape Provincial Gazette Vol 15 No
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The Naked Mole-Rat As an Animal Model in Biomedical Research: Current Perspectives
Open Access Animal Physiology Dovepress open access to scientific and medical research Open Access Full Text Article REVIEW The naked mole-rat as an animal model in biomedical research: current perspectives Laura-Nadine Schuhmacher Abstract: The naked mole-rat (NMR) is a subterranean rodent that has gained significant Zoé Husson attention from the biomedical research community in recent years as molecular mechanisms Ewan St. John Smith underlying its unusual biology start to be unraveled. With very low external mortality, NMRs have an unusually long lifespan while showing no signs of aging, such as neuro- Department of Pharmacology, University of Cambridge, Cambridge, UK degeneration or cancer. Furthermore, living underground in large colonies (100 to 300 animals), results in comparatively high carbon dioxide and low oxygen levels, from which NMRs have evolved extreme resistance to both hypoxia and hypercapnia. In this paper we have summarized the latest developments in NMR research and its impact on biomedical research, with the aim of providing a sound background that will inform and inspire further For personal use only. investigations. Keywords: naked mole-rat, longevity, cancer, hypoxia, nociception, pain Introduction The naked mole-rat (NMR) (Heterocephalus glaber) is a subterranean mammal, which has recently gained interest from scientists across a variety of research fields. Unlike the majority of mammals, NMRs are poikilothermic and eusocial, ie, are cold-blooded and have a single breeding female within a colony.1 In addition to these features, which have limited biomedical translatability, NMRs have also evolved several physiological adaptations to habituate to their extreme environmental conditions, which have led researchers to study this mammal with the hypothesis Open Access Animal Physiology downloaded from https://www.dovepress.com/ by 131.111.184.102 on 07-Sep-2017 that by understanding the extreme biology of NMRs, more will be understood about normal mammalian physiology. -
DOMESTIC RATS and MICE Rodents Expose Humans to Dangerous
DOMESTIC RATS AND MICE Rodents expose humans to dangerous pathogens that have public health significance. Rodents can infect humans directly with diseases such as hantavirus, ratbite fever, lymphocytic choriomeningitis and leptospirosis. They may also serve as reservoirs for diseases transmitted by ectoparasites, such as plague, murine typhus and Lyme disease. This chapter deals primarily with domestic, or commensal, rats and mice. Domestic rats and mice are three members of the rodent family Muridae, the Old World rats and mice, which were introduced into North America in the 18th century. They are the Norway rat (Rattus norvegicus), the roof rat (Rattus rattus) and the house mouse (Mus musculus). Norway rats occur sporadically in some of the larger cities in New Mexico, as well as some agricultural areas. Mountain ranges as well as sparsely populated semidesert serve as barriers to continuous infestation. The roof rat is generally found only in the southern Rio Grande Valley, although one specimen was collected in Santa Fe. The house mouse is widespread in New Mexico, occurring in houses, barns and outbuildings in both urban and rural areas. I. IMPORTANCE Commensal rodents are hosts to a variety of pathogens that can infect humans, the most important of which is plague. Worldwide, most human plague cases result from bites of the rat flea, Xenopsylla cheopis, during epizootics among Rattus spp. In New Mexico, the commensal rodent species have never been found infected with plague; here, the disease is prevalent among wild rodents (especially ground squirrels) and their fleas. Commensal rodents consume and contaminate foodstuffs and animal feed. -
Soil Movement by Burrowing Mammals: a Review Comparing Excavation Size and Rate to Body Mass of Excavators
Soil movement by burrowing mammals: a review comparing excavation size and rate to body mass of excavators Natalie S Haussmann Department of Geography, Geoinformatics and Meteorology, University of Pretoria, South Africa Corresponding author: Natalie S Haussmann, Department of Geography, Geoinformatics and Meteorology, University of Pretoria, Private Bag X20, Hatfield, South Africa. Email: [email protected] Tel: +27 (21) 420 4049 Abstract Mammal burrowing plays an important role in soil translocation and habitat creation in many environments. As a consequence, many burrowing mammals have at some point been studied in an ecosystem engineering context. From a geomorphological point of view, one of the focus areas of burrowing mammal research is on the amount of soil that is excavated and the rate at which this happens. As such, reviews exist on the volumes and rates of sediment removal by burrowing mammals in specific environments or for specific groups of species. Here a standardised comparison of mammal burrowing across a broad range of burrowing mammal species and environments is provided, focussing on both burrow volume and excavation rate. Through an ISI Web of Science-based literature search, articles presenting estimates of burrow volumes and/or excavation rate were identified. Relationships between species body size and burrow volume/excavation rate were explored and the influence of sociality and method of burrow volume estimation was assessed. The results show that, although bigger species construct 1 bigger burrows, it is the smaller species that remove more sediment per unit time at larger, site- level spatial scales. Burrow volume estimates are, however, independent of species sociality (solitary vs group-living) and method of burrow volume estimation (excavation-based vs mound- based). -
Kangaroo Rat and Pocket Mouse
Shrew Family Order Rodentia (Soricoidae) masked shrew vagrant shrew water shrew Sorex cinereus Sorex vagrans Sorex palustris grassland streambank streambank Mouse, Vole, Rats, and Muskrat (Cricetidae) meadow vole long-tailed vole heather vole Microtus pennsylvanicu Microtus longicaudus Phenacomys intermedius grassland streambank streambank/grassland/mountain Gapper’s red-backed vole deer mouse Western harvest mouse Clethrionomys gapperi Peromycus maniculatus Reithrodontomys megalotis mountain mountain/streambank grassland bushy-tailed woodrat Neotoma cinerea mountain rock mouse Northern grasshopper mouse Peromyscus difficilis Onychomys leucogaster mountain grassland Jumping Mouse Kangaroo Rat and Family Pocket Mouse silky pocket mouse (Zapodidae) (Heteromyidae) Perognathus flavus desert Western jumping mouse Ord’s kangaroo rat Apache pocket mouse Zapus princeps Dipodomys ordii Perognathus apache streambank desert mountain 1:1 0 1 2 3 4 5 6 inches 1 - Rodents Tracks are actual size. Pocket Gopher Porcupine Family Order Rodentia Family (Erethizonidae) (Geomyidae) Beaver Family (Castoridae) porcupine Erethizon dorsatum mountains/grasslands scale 1:3 beaver Castor canadensis streams/lakes/wetlands Northern pocket gopher scale 1:3 Thomomys talpoides grasslands scale 1:1 1:3 0 1 2 3 4 5 6 inches Squirrel Family (Sciuridae) least chipmunk Colorado chipmunk chicaree Eutamias minimus Eutamias quadrivittatus Tamiasciurus douglassi mountain/grassland mountain forest Abert’s squirrel Sciurus aberti kaibabensis mountain/forest rock ground squirrel golden-mantled ground Spermophilus variegatus squirrel mountain Spermophilus lateralis streambank yellow-bellied marmot Gunnison’s prairie dog thirteen-lined ground squirrel Marmota flaviventris Cynomys gunnisoni Spermophilus tridecemlineatus mountain/rockslide grassland grassland 1:1 0 1 2 3 4 5 6 inches 2 - Rodents Rodentia tracks vary in size. Sciuridae tracks are actual size.