Spatiotemporal Dynamics of Black-Tailed Prairie Dog Colonies Affected by Plague
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Biological Survey of a Prairie Landscape in Montana's Glaciated
Biological Survey of a Prairie Landscape in Montanas Glaciated Plains Final Report Prepared for: Bureau of Land Management Prepared by: Stephen V. Cooper, Catherine Jean and Paul Hendricks December, 2001 Biological Survey of a Prairie Landscape in Montanas Glaciated Plains Final Report 2001 Montana Natural Heritage Program Montana State Library P.O. Box 201800 Helena, Montana 59620-1800 (406) 444-3009 BLM Agreement number 1422E930A960015 Task Order # 25 This document should be cited as: Cooper, S. V., C. Jean and P. Hendricks. 2001. Biological Survey of a Prairie Landscape in Montanas Glaciated Plains. Report to the Bureau of Land Management. Montana Natural Heritage Pro- gram, Helena. 24 pp. plus appendices. Executive Summary Throughout much of the Great Plains, grasslands limited number of Black-tailed Prairie Dog have been converted to agricultural production colonies that provide breeding sites for Burrow- and as a result, tall-grass prairie has been ing Owls. Swift Fox now reoccupies some reduced to mere fragments. While more intact, portions of the landscape following releases the loss of mid - and short- grass prairie has lead during the last decade in Canada. Great Plains to a significant reduction of prairie habitat Toad and Northern Leopard Frog, in decline important for grassland obligate species. During elsewhere, still occupy some wetlands and the last few decades, grassland nesting birds permanent streams. Additional surveys will have shown consistently steeper population likely reveal the presence of other vertebrate declines over a wider geographic area than any species, especially amphibians, reptiles, and other group of North American bird species small mammals, of conservation concern in (Knopf 1994), and this alarming trend has been Montana. -
An Ecological Model to Classify and Monitor Mountain Plover Nesting Habitat on Grasslands in Colorado
AN ECOLOGICAL MODEL TO CLASSIFY AND MONITOR MOUNTAIN PLOVER NESTING HABITAT ON GRASSLANDS IN COLORADO Daniel W. Uresk, USDA Forest Service, Rapid City SD 57701 ABSTRACT A multivariate statistical model based on vegetation and soil surface characteristics was developed to classify and monitor mountain plover (Charadrius montanus) habitat groupings and nest selection. Data were collected on the shortgrass prairie, Pawnee National Grassland, Colorado. Vegetation and soil surface characteristics were sampled from late April to early June of 1999 and 2000 during the nesting season. Samples were collected on random sites in 43 sections and at 54 nest sites within adjacent townships. Random data were clustered into three habitat groups consisting of high, mid and low nesting habitat. Key variables in the model for classifying and monitoring nest habitat were percent bare ground, percent canopy cover for blue grama (Bouteloua gracilis) and buffalograss (Bouteloua dactyloides). The three nest habitat groupings were quantitatively identified with an estimated 97 percent accuracy. The model classified the 54 mountain plover nest sites as either high, mid or low nesting habitat. High mountain plover nest preference (39 nests) for bare ground was 46 percent, with blue grammar 27 percent and buffalograss at 2 percent (n = 39 nest sites). Mid classified nests (12) selected 23 percent bare ground, 60 percent blue grama and 1 percent buffalograss. Three nests were classified as low nesting habitat, which exhibited 25 percent bare ground, 41 percent buffalograss and 17 percent blue grama. Mountain plovers selected nest sites that had short plant structure, a mean visual obstruction reading (VOR) of 0.25 cm at nesting and ranged from 0 to 1.6 cm. -
Poaceae: Pooideae) Based on Plastid and Nuclear DNA Sequences
d i v e r s i t y , p h y l o g e n y , a n d e v o l u t i o n i n t h e monocotyledons e d i t e d b y s e b e r g , p e t e r s e n , b a r f o d & d a v i s a a r h u s u n i v e r s i t y p r e s s , d e n m a r k , 2 0 1 0 Phylogenetics of Stipeae (Poaceae: Pooideae) Based on Plastid and Nuclear DNA Sequences Konstantin Romaschenko,1 Paul M. Peterson,2 Robert J. Soreng,2 Núria Garcia-Jacas,3 and Alfonso Susanna3 1M. G. Kholodny Institute of Botany, Tereshchenkovska 2, 01601 Kiev, Ukraine 2Smithsonian Institution, Department of Botany MRC-166, National Museum of Natural History, P.O. Box 37012, Washington, District of Columbia 20013-7012 USA. 3Laboratory of Molecular Systematics, Botanic Institute of Barcelona (CSIC-ICUB), Pg. del Migdia, s.n., E08038 Barcelona, Spain Author for correspondence ([email protected]) Abstract—The Stipeae tribe is a group of 400−600 grass species of worldwide distribution that are currently placed in 21 genera. The ‘needlegrasses’ are char- acterized by having single-flowered spikelets and stout, terminally-awned lem- mas. We conducted a molecular phylogenetic study of the Stipeae (including all genera except Anemanthele) using a total of 94 species (nine species were used as outgroups) based on five plastid DNA regions (trnK-5’matK, matK, trnHGUG-psbA, trnL5’-trnF, and ndhF) and a single nuclear DNA region (ITS). -
Hesperostipa Comata Needle-And-Thread Grass
Hesperostipa comata Needle-and-thread Grass by Kathy Lloyd Montana Native Plant Society eedle-and-thread grass must have been one of the expedition’s least favorite Nthings that grew in the valleys and plains in summer and fall. They would have traveled through this grass on Montana prairies both in 1805 and 1806. Needle-and-thread grass is an apt descriptor for this native. The sharp seed has a long, twisted awn that, in response to humidity changes, screws the seed into the soil, or into your shoes, pants, or socks! I imagine that Lewis’s dog Seaman was not pleased either, and pulling seeds from his coat must have been a nightly ritual during the summer and fall. Photo: Drake Barton Lewis and Clark botany scholars are not certain who collected the needle-and-thread grass specimen that is housed in the Lewis & Clark Herbarium in Phila- delphia. We know it was collected on July 8, 1806, Hesperostipa comata (Needle-and-thread Grass) and both Clark and Lewis were in areas that support populations of the species. The two men had sepa- seed penetrate our mockersons and leather leggings rated on July 1st and on the 8th of July Lewis was in and give us great pain untill they are removed. my Lewis & Clark County east of Lewis & Clark Pass poor dog suffers with them excessively, he is con- heading to the Sun River. Clark was in Beaverhead stantly binting and scratching himself as if in a rack County and his party set up camp at Camp Fortunate of pain.” along the Beaverhead River. -
ORIGIN, BIOGEOGRAPHICAL MIGRATIONS and DIVERSIFICATIONS of TURFGRASSES James B Beard1
Research Report | SR132 ORIGIN, BIOGEOGRAPHICAL MIGRATIONS AND DIVERSIFICATIONS OF TURFGRASSES James B Beard1 Executive Summary Whether a turfgrass species is characterized as Primitive ancestral grasses are now proposed native or naturalized to North America has been to have appeared during the Late Cretaceous based on world-wide simplistic observations between 65 and 96 mya (million years ago) in focused on where the greatest genetic diversity Gondwanan Africa. The ancestral Pooideae are occurred, termed center-of-origin. Research infor- estimated to have migrated to the steppes of mation as to dating and locations of subsequent Laurasian Eurasia during the Eocene ~ 38 to migration and diversification has been minimal 47 mya. Taxonomic divergence of the base C3 due to a lack of needed research technologies. Pooideae group appears to have been initiated in Intercontinental migration of grasses has been Europe ~ 26 to 33.5 mya. The base C4 Pooideae assumed to have been unlikely due to oceanic apparently arose in Africa ~ 30 to 33 mya, followed separation. Recent development of paleobotanical by migration to West Gondwana South America studies using ultrastructural electron microscopic and to East Gondwana India and Australia. techniques and stable carbon isotope dating instrumentation and research procedures, plus Diversification led to the emergence of an ancient molecular phylogenetic research and cladistic Poeae group known as the fine-leaf fescues biogeographic analysis of large data sets are (Festuca) in central-Europe during the mid- clarifying our understanding of migration patterns Miocene ~ 13 mya. Subsequent migration occurred and dating of multiple secondary centers-of-origin via the mountains of central and eastern Asia, for grasses. -
Native Grasses Benefit Butterflies and Moths Diane M
AFNR HORTICULTURAL SCIENCE Native Grasses Benefit Butterflies and Moths Diane M. Narem and Mary H. Meyer more than three plant families (Bernays & NATIVE GRASSES AND LEPIDOPTERA Graham 1988). Native grasses are low maintenance, drought Studies in agricultural and urban landscapes tolerant plants that provide benefits to the have shown that patches with greater landscape, including minimizing soil erosion richness of native species had higher and increasing organic matter. Native grasses richness and abundance of butterflies (Ries also provide food and shelter for numerous et al. 2001; Collinge et al. 2003) and butterfly species of butterfly and moth larvae. These and moth larvae (Burghardt et al. 2008). caterpillars use the grasses in a variety of ways. Some species feed on them by boring into the stem, mining the inside of a leaf, or IMPORTANCE OF LEPIDOPTERA building a shelter using grass leaves and silk. Lepidoptera are an important part of the ecosystem: They are an important food source for rodents, bats, birds (particularly young birds), spiders and other insects They are pollinators of wild ecosystems. Terms: Lepidoptera - Order of insects that includes moths and butterflies Dakota skipper shelter in prairie dropseed plant literature review – a scholarly paper that IMPORTANT OF NATIVE PLANTS summarizes the current knowledge of a particular topic. Native plant species support more native graminoid – herbaceous plant with a grass-like Lepidoptera species as host and food plants morphology, includes grasses, sedges, and rushes than exotic plant species. This is partially due to the host-specificity of many species richness - the number of different species Lepidoptera that have evolved to feed on represented in an ecological community, certain species, genus, or families of plants. -
Great Basin Native Plant Selection and Increase Project FY05 Progress Report
Great Basin Native Plant Selection and Increase Project FY05 Progress Report USDI Bureau of Land Management Great Basin Restoration Initiative USDA Forest Service, Rocky Mountain Research Station, Shrub Sciences Laboratory, Provo, UT and Boise, ID Utah Division of Wildlife Resources, Great Basin Research Center, Ephraim, UT USDA Agricultural Research Service, Forage and Range Research Laboratory, Logan, UT USDA Agricultural Research Service, Bee Biology and Systematics Laboratory, Logan, UT Utah Crop Improvement Association, Logan, UT Association of Official Seed Certifying Agencies, Moline, IL USDA Natural Resources Conservation Service - Idaho, Utah, Nevada, and the Aberdeen Plant Materials Center, Aberdeen, ID Brigham Young University, Provo, UT USDA Forest Service, National Seed Laboratory, Dry Branch, GA Colorado State University Cooperative Extension, Tri-River Area, Grand Junction, CO USDA Agricultural Research Service, Western Regional Plant Introduction Station, Pullman, WA Oregon State University, Malheur Experiment Station, Ontario, OR USDA Agricultural Research Service, Eastern Oregon Agricultural Research Center, Burns, OR Great Basin Native Plant Selection and Increase Project FY05 Progress Report March 2006 COOPERATORS USDI Bureau of Land Management, Great Basin Restoration Initiative USDA Forest Service, Rocky Mountain Research Station, Shrub Sciences Laboratory, Provo, UT and Boise, ID Utah Division of Wildlife Resources, Great Basin Research Center, Ephraim, UT USDA Agricultural Research Service, Forage and Range Research -
Prairiemonitoring Dogpacket
texas parks & wildlife By Marsha E. May, Vicki Sybert and Heather Cardella Texas Black-tailed PrairieMonitoring DogPacket lack-tailed prairie dogs Unfortunately throughout their (Cynomys ludovicianus) are an range there has been a drastic de- Bicon of the grasslands. These cline in the population. Black-tailed animals were once common in short prairie dog colonies currently occupy and mixed grass prairies throughout less than 1% of their historic range the western mid-west, including (See Map on pg 2). Historically, mil- Texas, Oklahoma, Arizona, Colo- lions of acres of Texas grassland were rado, Kansas, Montana, Nebraska, covered by prairie dog towns, today New Mexico, South Dakota, North they cover less than 150,000 acres. Dakota and Wyoming, as well as The major factor affecting population Canada and Mexico. Field notes from decline is loss of habitat due to con- early explorers, museum specimens, version of native prairies to cropland. and turn-of-the-century accounts in Other factors include poisoning, the literature contain information recreational shooting, the pet trade upon which the historical range of and Sylvatic Plague. the black-tailed prairie dog in Texas Prairie dogs are an important part is based (Bailey 1905). Although of the ecosystem, their digging aerates these accounts provide useful in- and promotes soil formation, they formation, they are not scientifi- clip back brush maintaining the short cally accurate estimates of the total grass prairie and they are a keystone number of acres that were inhabited. species providing food and shelter for Offering Texans Bailey (1905) described the range of as many as 170 different animals. -
Grasslands of Western Kansas, North of the Arkansas River*
CHAPTER FOURTEEN Grasslands of Western Kansas, North of the Arkansas River* David K. Dahlgren, Randy D. Rodgers, R. Dwayne Elmore, and Matthew R. Bain Abstract. Lesser Prairie-Chickens (Tympanuchus pal- Prairie-Chickens in the region will be best accom- lidicinctus) occur in short-grass and mixed-grass plished by maintaining current habitat and provide prairies and associated grasslands restored management tools, guidelines, etc. and imple- through the Conservation Reserve Program (CRP) ment, recommend management practices, such north of the Arkansas River in Kansas. The Short- as grazing, prescribed fire, herbicide application, Grass Prairie/CRP Mosaic Ecoregion currently and prairie restoration, to improve habitat quality supports ~65% of the range-wide population of at smaller spatial scales. The ecoregion has been Lesser Prairie-Chickens. CRP lands provide impor- only recently occupied by substantial numbers of tant grassland habitats, especially nesting and Lesser Prairie-Chickens, and new data are needed brood-rearing areas for breeding Lesser Prairie- to develop conservation and management plans. Chickens. A combination of implementation of Current knowledge gaps include information on CRP grasslands at a landscape scale and favorable population demographics, limiting factors, habi- environmental conditions is thought to have led tat use and seasonal movements at various scales, to a significant increase in the occupied range habitat management techniques, energy develop- and population density of Lesser Prairie-Chickens ment impacts, and climate change. Additionally, in the ecoregion. Spring lek surveys since 1999 improved land use policies are needed for long- have documented the northern expansion of the term protection of habitat within the region, observed distribution of Lesser Prairie-Chickens beyond the typical duration of 10–15 years for in 2008, 2011, and 2012. -
Mixed Grassland (#156)
MIXED GRASSLAND (#156) The Mixed Grassland ecoregion is the southernmost and driest of Canada’s prairie ecoregions. A northern extension of the shortgrass prairies that stretches south to Mexico, this ecoregion is characterized by the vast open grasslands of the Great Plains, with prairie potholes and several large shallow lakes. It provides habitat for over 35 species at risk and is an important region for waterfowl nesting. The semi-arid climate limits crop production. Approximately 42% of this ecoregion remains in natural cover and almost 11% is within conserved/ protected areas, including 4% in community pastures. LOCATION Arching from southcentral Saskatchewan to southcentral Alberta along the U.S. border, this ecoregion forms the northern part of the semi-arid shortgrass prairie in the Great Plains of North America. This ecoregion extends southward along the Missouri River into northeastern Montana, northwest and central North Dakota, and central South Dakota (in the U.S., this ecoregion is called the Northwestern Mixed Grasslands). CLIMATE/GEOLOGY The Mixed Grassland ecoregion generally has long, dry and cold winters, with a short, warm and a relatively wet spring and summer. The mean annual temperature is approximately 3.5⁰C. Mean summer tempera- ture is 16⁰C and mean winter temperature is approximately -10⁰C. The mean annual precipitation ranges from 240 to 350 millimetres, with higher rain and snowfall in the eastern portion. Overall, this ecoregion is semi-arid, and compared to other regions of the Prairies, it has rela- tively low amounts of snow cover. Western sections of the ecoregion experience a higher frequency of warming Chinook winds in the winter. -
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r Agenda for SGS Site Review ,~ L Sunday, July 11th Late afternoon, site review team arrives r 6:45 Meet at Holiday Inn Lobby for ride to Dinner r 7:00 Dinner, site review team with all PI's Monday, July 12th r 7:00 Breakfast, Site Review Team Meets 7:45 Meet at Holiday Inn Lobby r 8:00 Van leaves from Holiday Inn for SGS Field Headquarters 9:00 Welcome and Comments: r Dr. Jud Harper, Vice President For Research, Colorado State University Dr. Arvin Mosier, for the USDA-Agricultural Research Service Central Plains r Experimental Range, Rangeland Research Unit Denver Burns, USDA-Forest Service Rocky Mountain Research Station Director r Steve Currey, Pawnee National Grasslands District Ranger 9:30 Introduction to the SGS LTER - Indy Burke r 10:30 Bre~ and Questions 11 :00 Atmosphere - Ecosystem Interactions Dr. Roger Pielke, Sr.: Atmosphere-ecosystem interactions Dr. Gene Kelly: Paleoclimate and paleopedology r Dr. Bill Parton: Long term data analysis and modeling 12:00 Lunch in the cottonwoods (box lunches provided) Brandon Bestelmeyer, Bob Schooley, invertebrates in the shortgrass steppe 1:00 Grazing and small mammal herbivory r Dr. Daniel Milchunas r Dr. Jim Detling 2:00 Enhanced CO2 Experiment r Dr. Arvin Mosier L r Dr. Dan LeCain r 1 Dr. Dan Milchunas 3:00 Prairie Dogs Dr. Bea VanHorne 1 Jeanine Junell Dr. Jim Detling I Dr. Paul Stapp 4:30 - 6:00 Poster session/cocktail hour and meeting with graduate students and 1 undergraduate students 6:00 - Barbecue with all the investigators and students working on the shortgrass steppe, 1 then back to the Holiday Inn l Tuesday, July 13 7:30 - 8:30 Executive Session of Site Review Team over Breakfast 1 8:30 Infonnation Management/GIS Chris Wasser l Martha Coleman 9:00 Education and Outreach Dr. -
Minnesota Biodiversity Atlas Plant List
Agassiz Dunes SNA Plant List Herbarium Scientific Name Minnesota DNR Common Name Status Achillea millefolium common yarrow Achnatherum hymenoides Indian rice grass Endangered Actaea rubra red baneberry Agrostis scabra rough bentgrass Allium stellatum prairie wild onion Ambrosia artemisiifolia common ragweed Ambrosia psilostachya western ragweed Amelanchier alnifolia saskatoon juneberry Amelanchier sanguinea var. sanguinea round-leaved juneberry Amorpha canescens leadplant Andropogon gerardii big bluestem Anemone canadensis canada anemone Anemone cylindrica long-headed thimbleweed Anemone patens pasqueflower Anemone patens var. multifida pasqueflower Antennaria sp. pussytoes Antennaria howellii subsp. neodioica Howell's pussytoes Antennaria neglecta field pussytoes Antennaria parvifolia small-leaved pussytoes Special Concern Antennaria plantaginifolia plantain-leaved pussytoes Anthoxanthum hirtum sweet grass Apocynum sibiricum clasping dogbane Aquilegia canadensis columbine Arabis pycnocarpa var. pycnocarpa hairy rock cress Aralia nudicaulis wild sarsaparilla Arctostaphylos uva-ursi bearberry Artemisia campestris subsp. caudata field sagewort Artemisia dracunculus tarragon Artemisia frigida sage wormwood Artemisia ludoviciana white sage Artemisia ludoviciana subsp. ludoviciana white sage Asclepias lanuginosa woolly milkweed Asclepias ovalifolia oval-leaved milkweed Asclepias syriaca common milkweed Asclepias viridiflora green milkweed Asparagus officinalis asparagus Astragalus canadensis var. canadensis Canada milk-vetch Betula pumila