Revised July 30, 2012 21 APPENDIX a Approved Plant List the Following
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Extrapolating Demography with Climate, Proximity and Phylogeny: Approach with Caution
! ∀#∀#∃ %& ∋(∀∀!∃ ∀)∗+∋ ,+−, ./ ∃ ∋∃ 0∋∀ /∋0 0 ∃0 . ∃0 1##23%−34 ∃−5 6 Extrapolating demography with climate, proximity and phylogeny: approach with caution Shaun R. Coutts1,2,3, Roberto Salguero-Gómez1,2,3,4, Anna M. Csergő3, Yvonne M. Buckley1,3 October 31, 2016 1. School of Biological Sciences. Centre for Biodiversity and Conservation Science. The University of Queensland, St Lucia, QLD 4072, Australia. 2. Department of Animal and Plant Sciences, University of Sheffield, Western Bank, Sheffield, UK. 3. School of Natural Sciences, Zoology, Trinity College Dublin, Dublin 2, Ireland. 4. Evolutionary Demography Laboratory. Max Planck Institute for Demographic Research. Rostock, DE-18057, Germany. Keywords: COMPADRE Plant Matrix Database, comparative demography, damping ratio, elasticity, matrix population model, phylogenetic analysis, population growth rate (λ), spatially lagged models Author statement: SRC developed the initial concept, performed the statistical analysis and wrote the first draft of the manuscript. RSG helped develop the initial concept, provided code for deriving de- mographic metrics and phylogenetic analysis, and provided the matrix selection criteria. YMB helped develop the initial concept and advised on analysis. All authors made substantial contributions to editing the manuscript and further refining ideas and interpretations. 1 Distance and ancestry predict demography 2 ABSTRACT Plant population responses are key to understanding the effects of threats such as climate change and invasions. However, we lack demographic data for most species, and the data we have are often geographically aggregated. We determined to what extent existing data can be extrapolated to predict pop- ulation performance across larger sets of species and spatial areas. We used 550 matrix models, across 210 species, sourced from the COMPADRE Plant Matrix Database, to model how climate, geographic proximity and phylogeny predicted population performance. -
Cottontail Rabbits
Cottontail Rabbits Biology of Cottontail Rabbits (Sylvilagus spp.) as Prey of Golden Eagles (Aquila chrysaetos) in the Western United States Photo Credit, Sky deLight Credit,Photo Sky Cottontail Rabbits Biology of Cottontail Rabbits (Sylvilagus spp.) as Prey of Golden Eagles (Aquila chrysaetos) in the Western United States U.S. Fish and Wildlife Service Regions 1, 2, 6, and 8 Western Golden Eagle Team Front Matter Date: November 13, 2017 Disclaimer The reports in this series have been prepared by the U.S. Fish and Wildlife Service (Service) Western Golden Eagle Team (WGET) for the purpose of proactively addressing energy-related conservation needs of golden eagles in Regions 1, 2, 6, and 8. The team was composed of Service personnel, sometimes assisted by contractors or outside cooperators. The findings and conclusions in this article are those of the authors and do not necessarily represent the views of the U.S. Fish and Wildlife Service. Suggested Citation Hansen, D.L., G. Bedrosian, and G. Beatty. 2017. Biology of cottontail rabbits (Sylvilagus spp.) as prey of golden eagles (Aquila chrysaetos) in the western United States. Unpublished report prepared by the Western Golden Eagle Team, U.S. Fish and Wildlife Service. Available online at: https://ecos.fws.gov/ServCat/Reference/Profile/87137 Acknowledgments This report was authored by Dan L. Hansen, Geoffrey Bedrosian, and Greg Beatty. The authors are grateful to the following reviewers (in alphabetical order): Katie Powell, Charles R. Preston, and Hillary White. Cottontails—i Summary Cottontail rabbits (Sylvilagus spp.; hereafter, cottontails) are among the most frequently identified prey in the diets of breeding golden eagles (Aquila chrysaetos) in the western United States (U.S.). -
Araliaceae.Pdf
ARALIACEAE 五加科 wu jia ke Xiang Qibai (向其柏 Shang Chih-bei)1; Porter P. Lowry II2 Trees or shrubs, sometimes woody vines with aerial roots, rarely perennial herbs, hermaphroditic, andromonoecious or dioecious, often with stellate indumentum or more rarely simple trichomes or bristles, with or without prickles, secretory canals pres- ent in most parts. Leaves alternate, rarely opposite (never in Chinese taxa), simple and often palmately lobed, palmately compound, or 1–3-pinnately compound, usually crowded toward apices of branches, base of petiole often broad and sheathing stem, stipules absent or forming a ligule or membranous border of petiole. Inflorescence terminal or pseudo-lateral (by delayed development), um- bellate, compound-umbellate, racemose, racemose-umbellate, or racemose-paniculate, ultimate units usually umbels or heads, occa- sionally racemes or spikes, flowers rarely solitary; bracts usually present, often caducous, rarely foliaceous. Flowers bisexual or unisexual, actinomorphic. Pedicels often jointed below ovary and forming an articulation. Calyx absent or forming a low rim, some- times undulate or with short teeth. Corolla of (3–)5(–20) petals, free or rarely united, mostly valvate, sometimes imbricate. Stamens usually as many as and alternate with petals, sometimes numerous, distinct, inserted at edge of disk; anthers versatile, introrse, 2- celled (or 4-celled in some non-Chinese taxa), longitudinally dehiscent. Disk epigynous, often fleshy, slightly depressed to rounded or conic, sometimes confluent with styles. Ovary inferior (rarely secondarily superior in some non-Chinese taxa), (1 or)2–10(to many)-carpellate; carpels united, with as many locules; ovules pendulous, 2 per locule, 1 abortive; styles as many as carpels, free or partially united, erect or recurved, or fully united to form a column; stigmas terminal or decurrent on inner face of styles, or sessile on disk, circular to elliptic and radiating. -
Floristic Surveys of Saguaro National Park Protected Natural Areas
Floristic Surveys of Saguaro National Park Protected Natural Areas William L. Halvorson and Brooke S. Gebow, editors Technical Report No. 68 United States Geological Survey Sonoran Desert Field Station The University of Arizona Tucson, Arizona USGS Sonoran Desert Field Station The University of Arizona, Tucson The Sonoran Desert Field Station (SDFS) at The University of Arizona is a unit of the USGS Western Ecological Research Center (WERC). It was originally established as a National Park Service Cooperative Park Studies Unit (CPSU) in 1973 with a research staff and ties to The University of Arizona. Transferred to the USGS Biological Resources Division in 1996, the SDFS continues the CPSU mission of providing scientific data (1) to assist U.S. Department of Interior land management agencies within Arizona and (2) to foster cooperation among all parties overseeing sensitive natural and cultural resources in the region. It also is charged with making its data resources and researchers available to the interested public. Seventeen such field stations in California, Arizona, and Nevada carry out WERC’s work. The SDFS provides a multi-disciplinary approach to studies in natural and cultural sciences. Principal cooperators include the School of Renewable Natural Resources and the Department of Ecology and Evolutionary Biology at The University of Arizona. Unit scientists also hold faculty or research associate appointments at the university. The Technical Report series distributes information relevant to high priority regional resource management needs. The series presents detailed accounts of study design, methods, results, and applications possibly not accommodated in the formal scientific literature. Technical Reports follow SDFS guidelines and are subject to peer review and editing. -
The AZNPS Led Waterman Restoration Project: Helping the Sonoran Upland Desert to Heal Itself
The AZNPS Led Waterman Restoration Project: Helping the Sonoran Upland Desert to Heal Itself John Scheuring Arizona Native Plant Society, Tucson Chapter [email protected] The Setting The Waterman Mountains are a rare limestone desert uplift 30 miles northwest of Central Tucson within the confines of the Ironwood Forest National Monument (IFNM) and administered by the Bureau of Land Management (BLM). The Waterman’s are home to several alkali loving plants including the federally listed endangered species the Nichol's Turk’s head cactus (Echinocactus horizonthalonius var. nicholi), elephant tree (Bursera microphylla), ocotillo (Fouqueria splendens) and desert agave (Agave deserti). The Waterman bajadas are dominated by saguaros (Carnegiea gigantea), foothill palo verdes (Parkinsonia microphyllum), and ironwood trees (Olnea tesote) with an understory of diverse grasses, forbs, and cacti. Desert bighorn sheep (Ovis canadensis ssp. nelsoni), desert tortoise (Gopherus morafkai), as well as many species of desert birds thrive in the Watermans. Land Disturbance and Invasive Introduction In March 1981 Harlow Jones, a mining entrepreneur and small aircraft salesman, illegally bulldozed 18 acres of undisturbed desert bajada on the northwest side of the Watermans. The disturbance included a one-kilometer airstrip. Starting in 1982 Mr. Jones lived on-site with his family, until he was declared a trespasser by BLM in 1997 and forced to leave. BLM requested that Mr. Jones plant vegetation on the disturbed land. Mr. Jones responded by planting buffelgrass (Pennisetum ciliare). By 2005 the entire 18 acres as well as 10 acres of peripheral desert were heavily infested with buffelgrass. Initial Attempts To Control Buffelgrass There were recurrent efforts to control the buffelgrass. -
Biogenic Volatile Organic Compound Emissions from Desert Vegetation of the Southwestern US
ARTICLE IN PRESS Atmospheric Environment 40 (2006) 1645–1660 www.elsevier.com/locate/atmosenv Biogenic volatile organic compound emissions from desert vegetation of the southwestern US Chris Gerona,Ã, Alex Guentherb, Jim Greenbergb, Thomas Karlb, Rei Rasmussenc aUnited States Environmental Protection Agency, National Risk Management Research Laboratory, Research Triangle Park, NC 27711, USA bNational Center for Atmospheric Research, Boulder, CO 80303, USA cOregon Graduate Institute, Portland, OR 97291, USA Received 27 July 2005; received in revised form 25 October 2005; accepted 25 October 2005 Abstract Thirteen common plant species in the Mojave and Sonoran Desert regions of the western US were tested for emissions of biogenic non-methane volatile organic compounds (BVOCs). Only two of the species examined emitted isoprene at rates of 10 mgCgÀ1 hÀ1or greater. These species accounted for o10% of the estimated vegetative biomass in these arid regions of low biomass density, indicating that these ecosystems are not likely a strong source of isoprene. However, isoprene emissions from these species continued to increase at much higher leaf temperatures than is observed from species in other ecosystems. Five species, including members of the Ambrosia genus, emitted monoterpenes at rates exceeding 2 mgCgÀ1 hÀ1. Emissions of oxygenated compounds, such as methanol, ethanol, acetone/propanal, and hexanol, from cut branches of several species exceeded 10 mgCgÀ1 hÀ1, warranting further investigation in these ecosystems. Model extrapolation of isoprene emission measurements verifies recently published observations that desert vegetation is a small source of isoprene relative to forests. Annual and daily total model isoprene emission estimates from an eastern US mixed forest landscape were 10–30 times greater than isoprene emissions estimated from the Mojave site. -
Approved Plant Species (By Watershed) for Use in Riparian Mitigation Areas, Pima County, Arizona
APPROVED PLANT SPECIES (BY WATERSHED) FOR USE IN RIPARIAN MITIGATION AREAS, PIMA COUNTY, ARIZONA Western Pima County Botanical Name Common Name Life Form Water Requirements HYDRORIPARIAN TREES Celtis laevigata (Celtis reticulata) Netleaf/Canyon hackberry Perennial Tree Moderate Populus fremontii ssp. fremontii Fremont cottonwood Perennial Tree High Salix gooddingii Goodding’s willow Perennial Tree High SHRUBS Celtis ehrenbergiana (Celtis pallida) Desert hackberry, spiny hackberry Perennial Shrub Low GRASSES Plains bristlegrass, large-spike Setaria macrostachya Perennial Bunchgrass Moderate bristlegrass Sporobolus airoides Alkali sacaton Perennial Bunchgrass Moderate MESORIPARIAN TREES Acacia constricta Whitethorn Acacia Perennial shrub/small tree Low-moderate Acacia greggii Catclaw Acacia Perennial Tree Low Celtis laevigata (Celtis reticulata) Netleaf/Canyon hackberry Perennial Tree Moderate Chilopsis linearis Desert Willow Perennial Tree Moderate Parkinsonia florida Blue Palo Verde Perennial Tree Low- Moderate Populus fremontii ssp. fremontii Fremont cottonwood Perennial Tree High Prosopis pubescens Screwbean mesquite Perennial Tree Moderate Prosopis velutina Velvet mesquite Perennial Tree Low Salix gooddingii Goodding’s willow Perennial Tree High SHRUBS Anisacanthus thurberi (Drejera thurberi) Desert honeysuckle Perennial Shrub Moderate Celtis ehrenbergiana (Celtis pallida) Desert hackberry, spiny hackberry Perennial Shrub Low Lycium andersonii var. andersonii Anderson Wolfberry, water jacket Perennial Shrub Low Fremont Wolfberry, Fremont's -
ASTERACEAE Christine Pang, Darla Chenin, and Amber M
Comparative Seed Manual: ASTERACEAE Christine Pang, Darla Chenin, and Amber M. VanDerwarker (Completed, April 17, 2019) This seed manual consists of photos and relevant information on plant species housed in the Integrative Subsistence Laboratory at the Anthropology Department, University of California, Santa Barbara. The impetus for the creation of this manual was to enable UCSB graduate students to have access to comparative materials when making in-field identifications. Most of the plant species included in the manual come from New World locales with an emphasis on Eastern North America, California, Mexico, Central America, and the South American Andes. Published references consulted1: 1998. Moerman, Daniel E. Native American ethnobotany. Vol. 879. Portland, OR: Timber press. 2009. Moerman, Daniel E. Native American medicinal plants: an ethnobotanical dictionary. OR: Timber Press. 2010. Moerman, Daniel E. Native American food plants: an ethnobotanical dictionary. OR: Timber Press. Species included herein: Achillea lanulosa Achillea millefolium Ambrosia chamissonis Ambrosia deltoidea Ambrosia dumosa Ambrosia eriocentra Ambrosia salsola Artemisia californica Artemisia douglasiana Baccharis pilularis Baccharis spp. Bidens aurea Coreopsis lanceolata Helianthus annuus 1 Disclaimer: Information on relevant edible and medicinal uses comes from a variety of sources, both published and internet-based; this manual does NOT recommend using any plants as food or medicine without first consulting a medical professional. Achillea lanulosa Family: Asteraceae Common Names: Yarrow, California Native Yarrow, Common Yarrow, Western Yarrow, Mifoil Habitat and Growth Habit: This plant is distributed throughout the Northern Hemisphere. It is native in temperate areas of North America. There are both native and introduced species in areas creating hybrids. Human Uses: This plant has a positive fragrance making it desired in gardens. -
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. -
Phoenix Active Management Area Low-Water-Use/Drought-Tolerant Plant List
Arizona Department of Water Resources Phoenix Active Management Area Low-Water-Use/Drought-Tolerant Plant List Official Regulatory List for the Phoenix Active Management Area Fourth Management Plan Arizona Department of Water Resources 1110 West Washington St. Ste. 310 Phoenix, AZ 85007 www.azwater.gov 602-771-8585 Phoenix Active Management Area Low-Water-Use/Drought-Tolerant Plant List Acknowledgements The Phoenix AMA list was prepared in 2004 by the Arizona Department of Water Resources (ADWR) in cooperation with the Landscape Technical Advisory Committee of the Arizona Municipal Water Users Association, comprised of experts from the Desert Botanical Garden, the Arizona Department of Transporation and various municipal, nursery and landscape specialists. ADWR extends its gratitude to the following members of the Plant List Advisory Committee for their generous contribution of time and expertise: Rita Jo Anthony, Wild Seed Judy Mielke, Logan Simpson Design John Augustine, Desert Tree Farm Terry Mikel, U of A Cooperative Extension Robyn Baker, City of Scottsdale Jo Miller, City of Glendale Louisa Ballard, ASU Arboritum Ron Moody, Dixileta Gardens Mike Barry, City of Chandler Ed Mulrean, Arid Zone Trees Richard Bond, City of Tempe Kent Newland, City of Phoenix Donna Difrancesco, City of Mesa Steve Priebe, City of Phornix Joe Ewan, Arizona State University Janet Rademacher, Mountain States Nursery Judy Gausman, AZ Landscape Contractors Assn. Rick Templeton, City of Phoenix Glenn Fahringer, Earth Care Cathy Rymer, Town of Gilbert Cheryl Goar, Arizona Nurssery Assn. Jeff Sargent, City of Peoria Mary Irish, Garden writer Mark Schalliol, ADOT Matt Johnson, U of A Desert Legum Christy Ten Eyck, Ten Eyck Landscape Architects Jeff Lee, City of Mesa Gordon Wahl, ADWR Kirti Mathura, Desert Botanical Garden Karen Young, Town of Gilbert Cover Photo: Blooming Teddy bear cholla (Cylindropuntia bigelovii) at Organ Pipe Cactus National Monutment. -
The Family Tree Garden Center Spider's Web Japanese Fatsia
Spider's Web Japanese Fatsia Fatsia japonica 'Spider's Web' Height: 10 feet Spread: 10 feet Sunlight: Hardiness Zone: 7b Description: Spider's Web Japanese Fatsia foliage This stunning plant has huge palmate dark green leaves Photo courtesy of NetPS Plant Finder that are speckled with white as its principle attraction; perfect for creating a tropical look in the garden; it takes about 3 years for it to show speckling so be patient Ornamental Features Spider's Web Japanese Fatsia features showy clusters of white pincushion flowers rising above the foliage in mid fall. It has attractive white-spotted green foliage. The large glossy lobed palmate leaves are highly ornamental and remain green throughout the winter. The fruit is not ornamentally significant. Landscape Attributes Spider's Web Japanese Fatsia is a multi-stemmed Spider's Web Japanese Fatsia evergreen shrub with an upright spreading habit of Photo courtesy of NetPS Plant Finder growth. Its average texture blends into the landscape, but can be balanced by one or two finer or coarser trees or shrubs for an effective composition. This shrub will require occasional maintenance and upkeep, and is best pruned in late winter once the threat of extreme cold has passed. Gardeners should be aware of the following characteristic(s) that may warrant special consideration; - Suckering Spider's Web Japanese Fatsia is recommended for the following landscape applications; - Accent - Mass Planting - Hedges/Screening - General Garden Use Planting & Growing Spider's Web Japanese Fatsia will grow to be about 10 feet tall at maturity, with a spread of 10 feet. It has a low canopy, and is suitable for planting under power lines. -
Avian Use of Xeroriparian Ecosystems in the North American Warm Deserts1
This file was created by scanning the printed publication. Errors identified by the software have been corrected; however, some errors may remain. Avian Use of Xeroriparian Ecosystems in the North American Warm Deserts1 2 2 R. Roy Johnson and Lois T. Haight Abstract.--Results of xeroriparian avian censuses are compared with paired desert upland censuses for various sub divisions of the Sonoran Desert. With few exceptions xero riparian habitat supports 5 to 10 times the population densi ties and species diversity of surrounding desert uplands. INTRODUCTION AND BACKGROUND The value of riparian ecosystems as avian habi classified the vegetation associated with these tat was first quantified in the late 1960's and early wash systems (Lowe and Brown 1973, Brown et al. 1970's (Carothers and Johnson 1971, Johnson 1971, 1979). Carothers et al. 1974). These earlier avian investi gations, however, dealt entirely with wet riparian In 1980 we began avian investigations at Organ ecosystems (hydroriparian and mesoriparian) and Pipe Cactus National Monument in the same region although dry riparian habitats had been defined a where Hensley (1954) had conducted his earlier stu decade earlier as "desert riparian" (Lowe 1961), dies. We are measuring species distribution and little has been done either qualitatively or quanti abundance of birds in various habitats during the tatively to further characterize these xeroriparian different seasons of the year. Dry watercourses and ecosystems. their attendant xeroriparian vegetation often con stitute almost 10% of the habitat of an area3. These earlier avian studies were concerned with This is especially noticeable for 1st, 2nd, and species diversity and population densities of breed 3rd order washes in desert faotnills (Johnson et al.