Increasing Native Forb Seed Supplies for the Great Basin
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Big Changes in the Great Basin Gail Wells Gail Wells Communications
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln JFSP Fire Science Digests U.S. Joint Fire Science Program 2008 Big Changes in the Great Basin Gail Wells Gail Wells Communications Follow this and additional works at: http://digitalcommons.unl.edu/jfspdigest Part of the Forest Biology Commons, Forest Management Commons, Other Forestry and Forest Sciences Commons, and the Wood Science and Pulp, Paper Technology Commons Wells, Gail, "Big Changes in the Great Basin" (2008). JFSP Fire Science Digests. 3. http://digitalcommons.unl.edu/jfspdigest/3 This Article is brought to you for free and open access by the U.S. Joint Fire Science Program at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in JFSP Fire Science Digests by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. FIRE SCIENCE DIGEST ISSUE 3 JUNE 2008 ISSUE 3 JUNE 2008 Big Changes in the Great Basin JFSP-funded researchers are exploring the ecological functioning of sagebrush-steppe communities in the Great Basin and other places in the dry Intermountain West. Their work is helping managers effectively use tools such as tree mastication and prescribed fire to help these communities become more resilient in the face of invasive weeds. Other research is finding ways to reestablish native vegetation on sites where weedy invaders have pushed the community past the point where it can recover on its own. FIRE SCIENCE DIGEST ISSUE 3 JUNE 2008 When it comes to endangered ecosystems, the Last summer’s Murphy Complex fire in Idaho and arid Intermountain West has more than its share. -
Wildflower Talk
Wildflower Talk These are a series of short articles written by Kristen Currin of Humble Roots Native Plant Nursery in Mosier, Oregon, featuring plants from around the Columbia Gorge. Each of these articles appeared in an issue of the Wasco County Soil and Water Conservation District’s newsletter, GROUNDWORK. I hope you enjoy them. All photos are courtesy of Kristen Currin. Please ask permission before using. www.humblerootsnursery.com Nothing in this document is to be construed as medical advice. A licensed herbalist should be consulted for proper identification and preparation before eating those plants designated as edible. Humble Roots Nursery nor the Conservation District are liable for improper consumption of plants listed in this document. INDEX Arnica, Heart-Leaf Glacier Lily Phlox, Cushion Bachelor Buttons Goldenrod Pineapple Weed Balsamroot Grass Widow Prairie Stars Bitterroot Indian Hemp Rabbitbrush (sp) Buckwheat, Arrowleaf Juniper Rabbitbrush, Gray Buckwheat, Snow Larkspur, Upland Rose, Wild California Poppy Kinnickinick Saxifrage Cattail Mariposa Lily Serviceberry Ceanothus Milkweed, Showy Shooting Star, Poet’s Chocolate Lily Miner’s Lettuce Sumac, Smooth Columbia Coreopsis Mugwort, Western Wapato Currant, Golden Native Shrubs Washington Lily Dutchman’s Breeches Nettle, Stinging Western Bunchberry Desert Parsley, Columbia Oceanspray Yellow Bee Plant Desert Parsley, Gray’s Oregon Grape Yellow Bells Elderberry, Blue Pearly Everlasting Yellow Star Thistle Gairdners Yampah Phantom Orchid 1 TOP Page Heart-leaf Arnica Arnica cordifolia Look for arnica's yellow flowers in spring. Arnica is an important native medicinal plant used topically to soothe sore muscles and sprains. A woodland plant and a good choice for the shady xeric garden. Bachelor Buttons, Cornflower Centaurea cyanus Many may think this beautiful blue flower is a native plant due to the fact that it dominates many of our meadows and is commonly sold in wildflower seed mixes. -
Energy Development and the Changing Economy of the West
A Report from the ENERGY AND THE WEST Series by Energy Development and the Changing Economy of the West September 2008 Energy Development and the Changing Economy of the West Headwaters Economics Bozeman, Montana September, 2008 - revised 06/24/09 PUBLISHED ONLINE : www.headwaterseconomics.org/energy ABOUT HEADWATERS ECONOMICS Headwaters Economics is an independent, nonprofit research group. Our mission is to improve community development and land management decisions in the West. P.O. Box 7059 Bozeman, MT 59771 406-599-7423 www.headwaterseconomics.org Cover design and layout by Michael Cutter. ii ABOUT THE ENERGY AND THE WEST SERIES This report is the first in a series Energy and the West published by Headwaters Economics on the topic of energy development. This series is designed to assist the public and public officials in making informed choices about energy development that will benefit the region over the long term. In the reports in the Energy and the West series listed below, we consider the policy context for en- ergy development in the West. Our focus is the impact of energy development on states, counties, and communities, from the perspectives of economic performance (i.e., jobs, personal income, wages) and fiscal health (i.e., state and county budgets, revenues and expenses). The series also includes state and local area case studies that explore benefits and costs in greater detail. Titles in the Energy and the West series: • Energy Development and the Changing Economy of the West • U.S. Energy Needs and the Role of Western -
Native Forb Information Sheet
United States Department of Agriculture Native Forb Information Sheet Missouri Information Sheet IS-MO-643Native Forb Natural Resources Conservation Service (NRCS) Missouri Conservation Practice 643 December 2017 Native forbs, or broadleaf plants, are a natural part of the Missouri landscape. They welcomed European settlers to the state, painting the prairie and savanna landscapes with vibrant colors that changed throughout the season while supporting an incredible diversity of native wildlife. More than 800 plant species, most of them forbs, have been identified on Missouri’s prairies. Missourians are demonstrating a rekindled interest in native forbs for their beauty, hardiness, and wildlife benefits. Native forbs are well adapted to Missouri’s climatic extremes, which range from potentially brutal cold in January to the often stifling heat of July. Once established, native forbs require few inputs and little maintenance. Native forbs feature a variety of shapes, sizes, color, and value to wildlife. The towering compass plant, the vibrant butterfly milkweed, the rather plain but very valuable roundhead lespedeza, and the unique rattlesnake master all add important diversity to any planting. Choosing which ones to plant can be difficult; contact your local conservation agency representative, or one of the vendors of native forb seed for assistance. You can find a list at www.plant-materials.nrcs.usda.gov/mopmc, www.grownative.org, or www.monativeseed.org. Seed vendors can be excellent sources of information, and they are often as eager as you are for your planting to be successful. Refer to Table 1 in this document for general information about native forbs that are most often available commercially. -
Common Plants at the UHCC
Flora Checklist Texas Institute for Coastal Prairie Research and Education University of Houston Donald Verser created this list by combining lists from studies by Grace and Siemann with the UHCC herbarium list Herbarium Collections Family Scientific Name Synonym Common Name Native Growth Accesion Dates Locality Comments Status Habit Numbers Acanthaceae Ruellia humilis fringeleaf wild petunia N forb 269 10/9/1973 Acanthaceae Ruellia nudiflora violet wild petunia N forb Agavaceae Manfreda virginica false aloe N forb Agavaceae Polianthes sp. polianthes ? forb 130 8/3/1971 2004 roadside Anacardiaceae Toxicodendron radicans eastern poison ivy N woody/vine Apiaceae Centella erecta Centella asiatica erect centella N forb 36 4/11/2000 Area 2 Apiaceae Daucus carota Queen Anne's lace I forb 139-142 1971 / 72 No collections by Dr. Brown. Perhaps Apiaceae Eryngium leavenworthii Leavenworth's eryngo N forb 144 7/20/1971 wooded area in pipeline ROW E. hookeri instead? Apiaceae Eryngium yuccifolium button eryngo N forb 77,143,145 71, 72, 2000 Apiaceae Polytaenia texana Polytaenia nuttallii Texas prairie parsley N forb 32 6/6/2002 Apocynaceae Amsonia illustris Ozark bluestar N Forb 76 3/24/2000 Area 4 Apocynaceae Amsonia tabernaemontana eastern bluestar N Forb Aquifoliaceae Ilex vomitoria yaupon N woody Asclepiadaceae Asclepias lanceolata fewflower milkweed N Forb Not on Dr. Brown's list. Would be great record. Asclepiadaceae Asclepias longifolia longleaf milkweed N Forb 84 6/7/2000 Area 6 Asclepiadaceae Asclepias verticillata whorled milkweed N Forb 35 6/7/2002 Area 7 Asclepiadaceae Asclepias viridis green antelopehorn N Forb 63, 92 1974 & 2000 Asteraceae Acmella oppositifolia var. -
Proceedings: Wildland Shrub and Arid Land Restoration Symposium
Restoration, Revegetation, and the Importance of Genetic and Evolutionary Perspectives Yan B. Linhart Abstract—Sound biological principles must provide the frame- 4. If you wish to restore locale A, do not collect seeds or work of revegetation projects. Propagules of native species must plants at A, grow them in a very different environment at be used, and these propagules must represent genetic material locale B (50 km away across the Continental Divide), and from sites that match the area to be revegetated as closely as pos- return the progeny, after 4 generations to locale A. Locale sible. Such matching can be best achieved by using materials B may be so different in both physical and biotic features from nearby plants growing in nature or propagated in nearby that it will create specific selective pressures that alter the nurseries. The closeness of matching will depend on the type of original gene pools from locale A. site to be revegetated. Within National Parks, whose mandate is 5. Restoration methods are often species-specific, because to maintain the ecological and genetic integrity of the biota, plants different species have different life histories. These life his- or their progeny must come from nearby sites. At other locations, tories must be taken into consideration when planning the matching may not need to be so conservative. The primary reason work. For example restoration with annual species, rhi- for this cautious approach is that plant genomes show very precise zomatous grasses, shrubs and coniferous trees all require adaptations to local conditions. Introduction of non-local materials somewhat different approaches. -
TAXONOMY Plant Family Species Scientific Name GENERAL
Plant Propagation Protocol for Eriogonum niveum ESRM 412 – Native Plant Production Protocol URL: https://courses.washington.edu/esrm412/protocols/ERNI2.pdf Spring 2014 North America Distribution Washington State Distribution Source: USDA PLANTS Database TAXONOMY Plant Family Scientific Name Polygonaceae Common Name Buckwheat Family Species Scientific Name Scientific Name Eriogonum niveum Douglas ex Benth. Varieties Eriogonum niveum Douglas ex. Benth. var. dichotomum (Douglas ex Benth.) M.E. Jones Eriogonum niveum Douglas ex. Benth. var. decumbens (Benth.) Torr. & A. Gray Sub-species Eriogonum niveum Douglas ex. Benth. ssp. decumbens (Benth.) S. Stokes Cultivar Common Synonym(s) Eriogonum strictum Benth. var. lachnostegium Common Name(s) Snow buckwheat, canyon heather 6 Species Code (as per USDA Plants ERNI2 database) GENERAL INFORMATION Geographical range Found mainly on the grassy plains east of the Cascade Range in southern British Columbia, west-central Idaho, northeastern Oregon, and eastern Washington.1 See maps above for distribution in North America and Washington state. Ecological distribution Found in sand to gravelly flats, slopes, bluffs, and rocky, often volcanic outcrops, mixed grassland and sagebrush communities and conifer woodlands.1 Climate and elevation range Elevation: 150-1500 m 2 Cold Hardiness Zone: 5a-7a 6 Mean Annual Precipitation: 150 – 460 mm 2 Soil: Well-drained sands to clay 2 Local habitat and abundance Common in big sage (Artemissia tridentate), antelope bitterbrush (Purshia tridentate), and open Ponderosa pine (Pinus ponderosa) areas. It also occurs in the canyon grasslands of the Snake and Columbia River systems.2 Found primarily in full sun but will grow in partial shade such as open Ponderosa pine hillsides.6 Tolerates extremely droughty soils and is a common occupant of dry, rocky southern exposures.6 Plant strategy type / successional Colonizer 2 stage Very successful pioneer species6 Plant characteristics Rarity: Locally Common 3 Dense perennial subshrub with erect leaves. -
Ecology and Management of Medusahead (Taeniatherum Caput- Medusae Ssp
Great Basin Naturalist Volume 52 Number 3 Article 6 12-18-1992 Ecology and management of medusahead (Taeniatherum caput- medusae ssp. asperum Melderis) James A. Young Agricultural Research Service, U.S. Department of Agriculture, Reno, Nevada Follow this and additional works at: https://scholarsarchive.byu.edu/gbn Recommended Citation Young, James A. (1992) "Ecology and management of medusahead (Taeniatherum caput-medusae ssp. asperum Melderis)," Great Basin Naturalist: Vol. 52 : No. 3 , Article 6. Available at: https://scholarsarchive.byu.edu/gbn/vol52/iss3/6 This Article 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 editor of BYU ScholarsArchive. For more information, please contact [email protected], [email protected]. Great Basin Naturalist 52(3), pr. 245-252 ECOLOGY AND MANAGEMENT OF MEDUSAHEAD (TAENIATHERUM CAPUT-MEDUSAE SSP. ASPERUM [SIMK.] MELDERlS) ABsn\Acr.-Medusahead is nnother in the extensive list of annual herbaceous S],X-"Cies to invade thl:: tempemte desert rangelands of the Great Basin. Mednsahead is not preferred by large herhin)res and apparently is not preferred by gmnivores. Herbage ofthis anlllial gl'ass enhances ignition and sprei.ld ofwildFIres. Mcdwmhcad is highly competitive with the se<..--dlings of IlJltive spedcs and is prohably the greate..<>t threat to the biodiver.<iity uf the natural vegdation that has yet been accidentally introduced into the Great 8nsin. Despite the obvious hiological disruptions that are os.rociated with medusahead invasion, the species offers a wealtll of opportunities for stlldents to examine the mechanism by which thiS species is so sllccessful. -
Interactions Between Elevated Atmospheric CO2 and Defoliation on North American Rangeland Plant Species at Low and High N Availability
Grass and Forage Science The Journal of the British Grassland Society The Official Journal of the European Grassland Federation Interactions between elevated atmospheric CO2 and defoliation on North American rangeland plant species at low and high N availability D. R. LeCain*, J. A. Morgan*, G. L. Hutchinson*, J. D. Reeder* and F. A. Dijkstra† *U.S. Department of Agriculture, Agricultural Research Service, Rangeland Resources Research Unit, Crops Research Laboratory, Fort Collins, CO, USA, and †Faculty of Agriculture, Food and Natural Resources, The University of Sydney, Level 4, Biomedical Building, 1 Central Avenue, Eveleigh, NSW 2015, Australia Abstract Keywords: semi-arid rangeland, CO2, defoliation, nitro- 15 Although common disturbances of grazing lands like gen, C3 grass, C4 grass, forb, root, biomass, N recov- plant defoliation are expected to affect their sensitivity ery, forage quality. to increasing atmospheric CO2 concentration, almost no research has been conducted to evaluate how important such effects might be on the direct responses of Introduction rangelands to CO2. This growth chamber experiment About 40% of terrestrial ecosystems are classified as subjected intact plant–soil cylinders from a Wyoming, rangelands (Suttie et al., 2005). Rangeland ecosystems USA, prairie to a 3-way factorial of CO2 (370 vs. are not characteristically productive lands, but they )1 720 lLL ), defoliation (non-clipped vs. clipped) and support most of the world’s managed livestock in )2 soil nitrogen (control vs. 10 g m added N) under addition to large herds of native ungulates (Campbell simulated natural climatic conditions. Above- and et al., 1997). The productivity of rangelands may be below-ground biomass and N dynamics of the func- slowly increasing owing to the fertilization effects of tional groups C3 grasses, C4 grasses and forbs were rising levels of atmospheric CO2 (Polley, 1997; Morgan investigated. -
Eleocharis Rostellata (Torr.) Torr., Is an Obligate Wetland Graminoid Species (Reed 1988)
United States Department of Agriculture Conservation Assessment Forest Service Rocky of the Beaked Spikerush Mountain Region Black Hills in the Black Hills National National Forest Custer, Forest, South Dakota and South Dakota May 2003 Wyoming Bruce T. Glisson Conservation Assessment of Beaked Spikerush in the Black Hills National Forest, South Dakota and Wyoming Bruce T. Glisson, Ph.D. 315 Matterhorn Drive Park City, UT 84098 Bruce T. Glisson is a botanist and ecologist with over 10 years of consulting experience, located in Park City, Utah. He has earned a B.S. in Biology from Towson State University, an M.S. in Public Health from the University of Utah, and a Ph.D. in Botany from Brigham Young University EXECUTIVE SUMMARY Beaked spikerush, Eleocharis rostellata (Torr.) Torr., is an obligate wetland graminoid species (Reed 1988). Beaked spikerush is widespread in the Americas from across southern Canada to northern Mexico, to the West Indies, the Caribbean, and the Andes of South America (Cronquist et al. 1994; Hitchcock et al. 1994). The species is secure throughout its range with a G5 ranking, but infrequent across most of the U.S., with Region 2 state rankings ranging from S1, critically imperiled; to S2, imperiled; to SR, reported (NatureServe 2001). Beaked spikerush is a “species of special concern” with the South Dakota Natural Heritage Program (Ode pers. comm. 2001). The only currently known population of beaked spikerush in South Dakota is in Fall River County, along Cascade Creek, an area where several other rare plant species occur. The beaked spikerush population is present on lands administered by Black Hills National Forest (BHNF), and on surrounding private lands, including the Whitney Preserve owned and managed by The Nature Conservancy (TNC). -
Draft Hanford Injury Assessment Plan Appendices
Public Review Draft Hanford Natural Resource Injury Assessment Plan APPENDIX A | THE FOUR HANFORD NPL SITES On November 3, 1989, Hanford was added to the NPL as four separate sites: the 100 Area, 200 Area, 300 Area, and 1100 Area (see Exhibits B-1 through B-4, below).78 In order to coordinate response actions, each of these sites was further subdivided into operable units (OUs), based on geographic area or common waste sources. A total of 1,200 waste management units have been identified throughout the Hanford Site and are grouped among the four NPL sites (DOE 2006a). Cleanup efforts for the remaining Hanford Site contamination are organized into three major components: the River Corridor (including the 100 and 300 Areas), the Central Plateau (primarily the 200 Area), and tank waste. Cleanup of the Site is a particularly large and complex effort, dependent on many dozens of individual decision steps, stakeholder coordination, sustained funding, and the ability to address complex technical challenges. Full remediation of the NPL sites is expected to extend over the next 40 to 50 years; however, timelines are difficult to determine, due to the factors discussed above (DOE 2012). Additional summary information describing the four Hanford NPL sites and the current status of remediation efforts is provided below. More detailed information can be found at http://www.hanford.gov/. AREA 100 AREA DESCRIPTIONS The 100 Area contains the remnants of Hanford’s nine nuclear reactors, spread over six reactor sites (B/C, K, N, D, H, and F). The footprint covers about 26 sq. mi. -
2017 Wildfire Season: an Overview Southwestern US
2017 Wildfire Season: An Overview Southwestern U.S. MAY 2018 Table of Contents Introduction ................................................... 1 Wildfire Management ................................... 1 The 2017 Fire Season ................................... 1 Regional Context ........................................... 1 Data Sources .................................................. 3 Frye Fire, Arizona ........................................... 5 Sawmill Fire, Arizona .................................... 7 Hilltop Fire, Arizona ....................................... 8 Brooklyn Fire, Arizona ................................... 9 Goodwin Fire, Arizona ................................ 10 Burro Fire, Arizona ...................................... 11 Corral Fire, New Mexico ............................. 12 Hyde Fire, Arizona ....................................... 13 Boundary Fire, Arizona ............................... 14 Snake Ridge Fire, Arizona ........................... 16 Lizard Fire, Arizona ...................................... 17 Conclusion .................................................... 18 Appendix 1. Fire Statistics .......................... 20 Intermountain West Frequent-fire Forest Restoration Ecological restoration is a practice that seeks to heal degraded ecosystems by reestablishing native species, structural characteristics, and ecological processes. The Society for Ecological Restoration International defines ecological restoration as “an intentional activity that initiates or accelerates the recovery of an