THE FORAGE and RANGE RESEARCH LABORATORY the FORAGE and RANGE PLANTS for the WEST RESEARCH LABORATORY Plants for the West
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Revegetation Strategies for Rangelands
Revegetation Strategies for Rangelands Russellagri.nv.gov Wilhelm, Seed Program Manager January 7, 2021 About the Presenter • Russ Wilhelm • Seed Program Manager at Nevada Dept. of Agriculture – Since January 2015 • Graduate from University of Nevada, Reno • Been working intensively with native seed in NV for past 4 years agri.nv.gov Synopsis of Presentation Martin Fire, 2018 – High Country News 440,000 acres burnt Restoration of rangelands throughout the intermountain West has been an excitedly discussed topic for centuries. New strategies are on the rise throughout the West that will help promote rangeland health and longevity, while assisting to suppress wildfire intensity and decrease frequency. Martin Reseeding - USFWS Photo taken by SKulpa Several revegetation methods and new reseeding technologies will be investigated and the use of locally adapted, genetically appropriate, seed will be the focal point. agri.nv.gov Primary Reasons for Rangeland Restoration Wildfire Mining reclamation rehabilitation Preventing spread Erosion control of invasive species Preserving wildlife Many, many more… habitat agri.nv.gov Common Restoration Methods Revegetation Grazing Management The use of plant propagules Controlling grazing habits of livestock or game to decrease (seed), native or non-native, the level of disturbance to a to reintroduce desirable landscape. species to a disturbed site. Ex. Implementing stockmanship Ex. Designing an herbicide protected principles to effectively rotate livestock seed mix, to re-apply to a burn site. across allotments. Invasive Species Inventory & Monitoring Management Assessing the conditions of an Preventing the introduction or area to determine the needs spread of undesirable species and strategize on control to a vulnerable site. methods. -
Genetic Diversity and Phylogeny in Hystrix (Poaceae, Triticeae) and Related Genera Inferred from Giemsa C-Banded Karyotypes
Genetics and Molecular Biology, 32, 3, 521-527 (2009) Copyright © 2009, Sociedade Brasileira de Genética. Printed in Brazil www.sbg.org.br Research Article Genetic diversity and phylogeny in Hystrix (Poaceae, Triticeae) and related genera inferred from Giemsa C-banded karyotypes Hai-Qin Zhang1,2, Rui-Wu Yang3, Li Zhang3, Chun-Bang Ding3, Jian Zeng1 and Yong-Hong Zhou1,2 1Triticeae Research Institute, Sichuan Agricultural University, Sichuan, China. 2Key Laboratory of Crop Genetic Resources and Improvement, Ministry of Education, Sichuan Agricultural University, Sichuan, China. 3College of Biology and Science, Sichuan Agricultural University, Sichuan, China. Abstract The phylogenetic relationships of 15 taxa from Hystrix and the related genera Leymus (NsXm), Elymus (StH), Pseudoroegneria (St), Hordeum (H), Psathyrostachys (Ns), and Thinopyrum (E) were examined by using the Giemsa C-banded karyotype. The Hy. patula C-banding pattern was similar to those of Elymus species, whereas C-banding patterns of the other Hystrix species were similar to those of Leymus species. The results suggest high genetic diversity within Hystrix, and support treating Hy. patula as E. hystrix L., and transferring Hy. coreana, Hy. duthiei ssp. duthiei and Hy. duthiei ssp. longearistata to the genus Leymus. On comparing C-banding patterns of Elymus species with their diploid ancestors (Pseudoroegneria and Hordeum), there are indications that certain chro- mosomal re-arrangements had previously occurred in the St and H genomes. Furthermore, a comparison of the C-banding patterns of the Hystrix and Leymus species with the potential diploid progenitors (Psathyrostachys and Thinopyrum) suggests that Hy. coreana and some Leymus species are closely related to the Ns genome of Psathyrostachys, whereas Hy. -
Elytrigia and Elymus (Agropyron)
Plant Crib ELYTRIGIA AND ELYMUS (AGROPYRON) 1. General There are number of problems which can cause confusion in these genera, though the species are themselves usually quite distinct. i) Changes in nomenclature. The current names and recent synonymy are as follows: Elymus caninus (L.) L. (Agropyron caninum) Elytrigia atherica (Link) Kerguélen ex Carreras Mart. (Elymus pycnanthus; Agropyron pungens) Elytrigia juncea (L.) Nevski (Elymus farctus; Agropyron junciforme) Elytrigia repens (L.) Desv. ex Nevski (Elymus repens; Agropyron repens) Leymus arenarius (L.) Hochst. (Elymus arenarius) ii) Plants with awns. Plants of Elytrigia repens with awns are quite common and tend to be recorded as Elymus caninus by the unwary (when the florets of the latter drop or are pulled off, the two glumes stay attached to the stem, but come off with the floret in Elytrigia repens). Elytrigia atherica may also have awns. iii) Both Elytrigia repens and E. atherica may grow on saltmarshes and adjacent banks, especially in the north, and are frequently confused by the unwary if it is assumed only the latter occurs on saltmarshes. iv) Hybrids may be locally frequent near the coast (e.g. E. ´ drucei seems to be much more common in Cumbria than E. atherica, which may not occur at all; Halliday 1997). When the jizz of the parents is known, hybrids can be picked out as intermediate from a few metres away. v) The hairs on the margins of the leaf sheaths may rub off late in the season. In the following rather unsatisfactory key (updated from Wigginton & Graham 1981) an attempt has been made to key out the hybrids, which as a rule have empty anthers. -
Native Cool Season Grasses Guide
NATIVE COOL SEASON GRASSES GUIDE PURE STAND SEEDING RATES SCIENTIFIC NAME COMMON NAME HEIGHT (PLS LBS/ACRE) Achnatherum hymenoides Indian Rice Grass 1.5' 8 Agropyron smithii Western Wheatgrass 3' 12 Agropyron trachycaulum Slender Wheatgrass 3' 8 Bromus anomalus Nodding Brome 2' 18 Bromus carinatus California Brome 4' 15 Bromus ciliatus Fringed Brome 4' 10 Bromus kalmii Prairie Brome 3' 12 Bromus marginatus Mountain Brome 4' 25 Bromus purgans Hairy Wood Chess 4' 12 Calamagrostis canadensis Blue Joint Reed Grass (Canada Bluejoint) 4' 0.4 Danthonia spicata Poverty Oats 1' 4 Deschampsia cespitosa Tufted Hairgrass 3.5' 2 Elymus canadensis Canada Wildrye 3'–4' 8 Elymus elymoides Bottlebrush Squirreltail 1.5' 8 Elymus glaucus Blue Wildrye 5' 12 Elymus lanceolatus Thickspike (Streambank) Wheatgrass 2.5' 10 SEASONNATIVE COOL GRASSES GUIDE Elymus riparius Riverbank Wildrye 4' 8 Elymus villosus Silky Wildrye 3' 8 Elymus virginicus Virginia Wildrye 3' 12 Elymus wawawaiensis Snake River Wheatgrass 2.5' 18 Festuca arizonica Arizona Fescue 2' 3 Festuca campestris Rough Fescue 1.5' 8 Festuca idahoensis Idaho Fescue 2' 4 Festuca obtusa Nodding Fescue 2' 5 Festuca occidentalis Western Fescue 3' 5 Festuca saximontana Rocky Mountain Fescue 3' 2 75 SPEAK WITH A SPECIALIST NOW! | 888.498.7333 NATIVE COOL SEASON GRASSES GUIDE CONTINUED PURE STAND SEEDING RATES SCIENTIFIC NAME COMMON NAME HEIGHT (PLS LBS/ACRE) Glyceria canadensis Rattlesnake Grass 3' 1 Glyceria striata Fowl Manna Grass 3' 0.8 Hordeum brachyantherum Meadow Barley 2.5' 10 Hordeum jubatum Squirrel Tail Grass 2' 8 Koeleria cristata Prairie June Grass 2' 0.8 Leersia oryzoides Ride Cut Grass 4' 3 Leymus cinereus Great Basin Wildrye 5' 11 Leymus salinus Salina Wildrye 2.5' 12 Leymus triticoides Beardless Wildrye (Creeping Wildrye) 3' 9 Poa alpina Alpine Bluegrass 1.75' 2 Poa compressa Canada Bluegrass 8" 2 Poa fenderiana Muttongrass 2' 2 Poa nervosa Wheeler Bluegrass 1.8' 2 Poa palustris Fowl Bluegrass 2' 0.8 Poa secunda ssp. -
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. -
Taxonomy and Phylogeny in Triticeae: a Historical Review and Current Status
Advances in Plants & Agriculture Research Review Article Open Access Taxonomy and phylogeny in Triticeae: a historical review and current status Abstract Volume 3 Issue 5 - 2016 The Triticeae is an economically important tribe within the Poaceae. Because a number of cereal crops and forage grasses belong to the tribe it has attracted much scientific Mohannad G Al–Saghir attention covering many species: taxonomy, phylogeny, genetics, cytogenetic, genome Department of Environmental and Plant Biology, Ohio analyses (crossing ability and chromosome pairing), isoenzymes, molecular biology University, USA (RFLP, RAPD, PCR sequencing) and breeding. This paper contains a brief historical outline of the taxonomy of the tribe. Phylogenetic hypotheses regarding this tribe Correspondence: Mohannad G Al–Saghir, Department of inferred from different methods, techniques and approaches, are reviewed. The Environmental and Plant Biology, Ohio University, Zanesville, different phylogenies are discussed and compared and conflicts are elucidated. Ohio, USA, Email al–[email protected] Keywords: triticeae, phylogeny, taxonomy, poaceae, perennial species, durum Received: April 23, 2016 | Published: May 10, 2016 wheat, phylogenies, genetic diversity, cytogenetics, molecular biology, chromosomes, perennial, caespitose, thizomatous species Introduction as cited above. We can therefore conclude that the most appropriate outgroup for the tribe will be Bromus. The tribe Triticeae Dum is economically the most important tribe in the grass family (Poaceae). It encompasses between 350 and 500 Definition annual or perennial species,1–3 including the important cereal crops wheat (Triticum aestivium L.), durum wheat (T. turgidum sup. durum The Triticeae encompasses annual and perennial, caespitose or (Desf. MacKay) barley (Hordeum vulgare L.), rye (Secale cereal L.) thizomatous species. -
Genome Analysis of South American Elymus (Triticeae) and Leymus (Triticeae) Species Based on Variation in Repeated Nucleotide Sequences
UC Davis UC Davis Previously Published Works Title Genome analysis of South American Elymus (Triticeae) and Leymus (Triticeae) species based on variation in repeated nucleotide sequences. Permalink https://escholarship.org/uc/item/54w48156 Journal Genome, 40(4) ISSN 0831-2796 Authors Dubcovsky, J Schlatter, AR Echaide, M Publication Date 1997-08-01 DOI 10.1139/g97-067 Peer reviewed eScholarship.org Powered by the California Digital Library University of California Genome analysis of South American Elymus (Triticeae) and Leymus (Triticeae) species based on variation in repeated nucleotide sequences Jorge DU~COVS~~,A.R. Schlatter, and M. Echaide Abstract: Variation in repeated nucleotide sequences (RNSs) at the level of entire families assayed by Southern blot hybridization is remarkably low within species and is a powerful tool for scrutinizing the origin of allopolyploid taxa. Thirty-one clones from RNSs isolated from different Triticeae genera were used to investigate the genome constitution of South American Elymus. One of these clones, pHch2, preferentially hybridized with the diploid H genome Hordeum species. Hybridization of this clone with a worldwide collection of Elymus species with known genome formulas showed that pHch2 clearly discriminates Elymus species with the H genome (StH, StHH, StStH, and StHY) from those with other genome combinations (Sty, StStY, StPY, and StP). Hybridization with pHch2 indicates the presence of the H genome in all South American Elymus species except Elymus erianthus and Elymus mendocinus. Hybridization with additional clones that revealed differential restriction fragments (marker bands) for the H genome confirmed the absence of the H genome in these species. Differential restriction fragments for the NS genome of Psathyrostachys were detected in E. -
Soil Ecology of the Exotic Dune Grass Leymus Arenarius
University of Louisville ThinkIR: The University of Louisville's Institutional Repository Electronic Theses and Dissertations 5-2018 Soil ecology of the exotic dune grass Leymus arenarius. Matthew L. Reid University of Louisville Follow this and additional works at: https://ir.library.louisville.edu/etd Part of the Botany Commons, and the Terrestrial and Aquatic Ecology Commons Recommended Citation Reid, Matthew L., "Soil ecology of the exotic dune grass Leymus arenarius." (2018). Electronic Theses and Dissertations. Paper 2995. https://doi.org/10.18297/etd/2995 This Doctoral Dissertation is brought to you for free and open access by ThinkIR: The University of Louisville's Institutional Repository. It has been accepted for inclusion in Electronic Theses and Dissertations by an authorized administrator of ThinkIR: The University of Louisville's Institutional Repository. This title appears here courtesy of the author, who has retained all other copyrights. For more information, please contact [email protected]. SOIL ECOLOGY OF THE EXOTIC DUNE GRASS LEYMUS ARENARIUS By Matthew L. Reid B.A. Hendrix College, 2009 M.S. University of Louisiana at Monroe, 2013 A Dissertation Submitted to the Faculty of the College of Arts and Sciences of the University of Louisville in Partial Fulfillment of the Requirements for the Degree of Doctor of Philosophy in Biology Department of Biology University of Louisville Louisville, Kentucky May 2018 SOIL ECOLOGY OF THE EXOTIC DUNE GRASS LEYMUS ARENARIUS By Matthew L. Reid B.A. Hendrix College, 2009 M.S. University -
Beardless Wildrye (Leymus Triticoides) Plant Guide
Plant Guide reptiles, rodents and other small mammals (McAdoo et BEARDLESS WILDRYE al., 2006; Olson, 2001). Leymus triticoides (Buckl.) Pilger Ethnobotanical: Beardless wildrye seed was used Plant Symbol = LETR5 historically by Native Americans as meal, or pinole (Chesnut, 1902). Contributed by: USDA NRCS Lockeford Plant Materials Center, California & Bridger Plant Materials Center, Status Montana Please consult the PLANTS Web site and your State Department of Natural Resources for this plant’s current status (e.g., threatened or endangered species, state noxious status, and wetland indicator values). Description General: Grass Family (Poaceae). Beardless wildrye is a cool-season, perennial, sod-forming native grass. It grows 18 to 51 inches tall (45-130 cm) and is strongly rhizomatous (Hickman, 1993). Stems are usually smooth, but are occasionally hairy. Leaf blades are green to blue- green, stiff and flat early in the growth season, becoming rolled later in the year, and are 0.1 to 0.2 inch wide (2.5-4 mm). The spike is narrow and 2 to 7.9 inches long (5-20 cm), with typically two or more spikelets occurring per node, except for occasional single spikelets near the top. Photo by Anna Young-Mathews, Lockeford PMC Glumes and lemmas are sharp pointed, and lemmas are Alternate Names generally tipped with an approximately 0.1 inch (3 mm) Creeping wildrye, alkali ryegrass, valley wild rye, Elymus awn. triticoides Identification: Beardless wildrye hybridizes with Leymus Uses condensatus, L. mollis and L. cinereus. It may be Beardless wildrye is primarily used for soil stabilization, confused with western wheatgrass (Pascopyrum smithii) especially along channel or river banks, and for wildlife due to their similar habitat and growth habit (OSU habitat in wetland and riparian plantings. -
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. -
United Comstock Merger Mill at American Flat (AFM), While Addressing the Historic Resources
Sierra Front Sierra United Comstock Merger Nevada Office, Field Mill at American Flat ENVIRONMENTAL ASSESSMENT DOI-BLM-NV-C020-2012-0040-EA U.S. Department of the Interior Bureau of Land Management Carson City District Sierra Front Field Office 5665 Morgan Mill Road Carson City, NV 89701 775-885-6000 December 2012 It is the mission of the Bureau of Land Management to sustain the health, diversity, and productivity of the public lands for the use and enjoyment of present and future generations. DOI-BLM-NV-C020-2012-0040-EA ii Table of Contents 1.0 INTRODUCTION .......................................................................................... 1 1.1 Background ...................................................................................................................... 1 1.2 Purpose and Need ............................................................................................................. 4 1.3 Scoping and Issues Identification ..................................................................................... 4 1.3.1 Tribal Consultation ................................................................................................... 4 1.3.2 Public Scoping in 2011 ............................................................................................. 5 1.3.3 Issues Considered in this EA .................................................................................... 5 1.4 Land Use Conformance Statement ................................................................................... 6 1.5 Relationships -
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.