Mojave Newsletter
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Outline of Angiosperm Phylogeny
Outline of angiosperm phylogeny: orders, families, and representative genera with emphasis on Oregon native plants Priscilla Spears December 2013 The following listing gives an introduction to the phylogenetic classification of the flowering plants that has emerged in recent decades, and which is based on nucleic acid sequences as well as morphological and developmental data. This listing emphasizes temperate families of the Northern Hemisphere and is meant as an overview with examples of Oregon native plants. It includes many exotic genera that are grown in Oregon as ornamentals plus other plants of interest worldwide. The genera that are Oregon natives are printed in a blue font. Genera that are exotics are shown in black, however genera in blue may also contain non-native species. Names separated by a slash are alternatives or else the nomenclature is in flux. When several genera have the same common name, the names are separated by commas. The order of the family names is from the linear listing of families in the APG III report. For further information, see the references on the last page. Basal Angiosperms (ANITA grade) Amborellales Amborellaceae, sole family, the earliest branch of flowering plants, a shrub native to New Caledonia – Amborella Nymphaeales Hydatellaceae – aquatics from Australasia, previously classified as a grass Cabombaceae (water shield – Brasenia, fanwort – Cabomba) Nymphaeaceae (water lilies – Nymphaea; pond lilies – Nuphar) Austrobaileyales Schisandraceae (wild sarsaparilla, star vine – Schisandra; Japanese -
Publications of Peter H. Raven
Peter H. Raven LIST OF PUBLICATIONS 1950 1. 1950 Base Camp botany. Pp. 1-19 in Base Camp 1950, (mimeographed Sierra Club report of trip). [Upper basin of Middle Fork of Bishop Creek, Inyo Co., CA]. 1951 2. The plant list interpreted for the botanical low-brow. Pp. 54-56 in Base Camp 1951, (mimeographed Sierra Club report of trip). 3. Natural science. An integral part of Base Camp. Pp. 51-52 in Base Camp 1951, (mimeographed Sierra Club report of trip). 4. Ediza entomology. Pp. 52-54 in Base Camp 1951, (mimeographed Sierra Club report of trip). 5. 1951 Base Camp botany. Pp. 51-56 in Base Camp 1951, (mimeographed Sierra Club report of trip). [Devils Postpile-Minaret Region, Madera and Mono Counties, CA]. 1952 6. Parsley for Marin County. Leafl. West. Bot. 6: 204. 7. Plant notes from San Francisco, California. Leafl. West. Bot. 6: 208-211. 8. 1952 Base Camp bird list. Pp. 46-48 in Base Camp 1952, (mimeographed Sierra Club report of trip). 9. Charybdis. Pp. 163-165 in Base Camp 1952, (mimeographed Sierra Club report of trip). 10. 1952 Base Camp botany. Pp. 1-30 in Base Camp 1952, (mimeographed Sierra Club report of trip). [Evolution Country - Blaney Meadows - Florence Lake, Fresno, CA]. 11. Natural science report. Pp. 38-39 in Base Camp 1952, (mimeographed Sierra Club report of trip). 1953 12. 1953 Base Camp botany. Pp. 1-26 in Base Camp 1953, (mimeographed Sierra Club report of trip). [Mono Recesses, Fresno Co., CA]. 13. Ecology of the Mono Recesses. Pp. 109-116 in Base Camp 1953, (illustrated by M. -
Tidal Marsh Recovery Plan Habitat Creation Or Enhancement Project Within 5 Miles of OAK
U.S. Fish & Wildlife Service Recovery Plan for Tidal Marsh Ecosystems of Northern and Central California California clapper rail Suaeda californica Cirsium hydrophilum Chloropyron molle Salt marsh harvest mouse (Rallus longirostris (California sea-blite) var. hydrophilum ssp. molle (Reithrodontomys obsoletus) (Suisun thistle) (soft bird’s-beak) raviventris) Volume II Appendices Tidal marsh at China Camp State Park. VII. APPENDICES Appendix A Species referred to in this recovery plan……………....…………………….3 Appendix B Recovery Priority Ranking System for Endangered and Threatened Species..........................................................................................................11 Appendix C Species of Concern or Regional Conservation Significance in Tidal Marsh Ecosystems of Northern and Central California….......................................13 Appendix D Agencies, organizations, and websites involved with tidal marsh Recovery.................................................................................................... 189 Appendix E Environmental contaminants in San Francisco Bay...................................193 Appendix F Population Persistence Modeling for Recovery Plan for Tidal Marsh Ecosystems of Northern and Central California with Intial Application to California clapper rail …............................................................................209 Appendix G Glossary……………......................................................................………229 Appendix H Summary of Major Public Comments and Service -
Vestured Pits in Wood of Onagraceae: Correlations with Ecology, Habit, and Phylogeny1
VESTURED PITS IN WOOD OF Sherwin Carlquist2 and Peter H. Raven3 ONAGRACEAE: CORRELATIONS WITH ECOLOGY, HABIT, AND PHYLOGENY1 ABSTRACT All Onagraceae for which data are available have vestured pits on vessel-to-vessel pit pairs. Vestures may also be present in some species on the vessel side of vessel-to-ray pit pairs. Herbaceous Onagraceae do not have fewer vestures, although woods with lower density (Circaea L. and Oenothera L.) have fewer vestures. Some Onagraceae from drier areas tend to have smaller vessel pits, and on that account may have fewer vestures (Epilobium L. and Megacorax S. Gonz´alez & W. L. Wagner). Pit apertures as seen on the lumen side of vessel walls are elliptical, occasionally oval, throughout the family. Vestures are predominantly attached to pit aperture margins. As seen from the outer surfaces of vessels, vestures may extend across the pit cavities. Vestures are usually absent or smaller on the distal portions of pit borders (except for Ludwigia L., which grows consistently in wet areas). Distinctive vesture patterns were observed in the several species of Lopezia Cav. and in Xylonagra Donn. Sm. & Rose. Vestures spread onto the lumen-facing vessel walls of Ludwigia octovalvis (Jacq.) P. H. Raven. Although the genera are presented here in the sequence of a recent molecular phylogeny of Onagraceae, ecology and growth forms are more important than evolutionary relationships with respect to abundance, degree of grouping, and morphology of vestured pits. Designation of vesture types is not warranted based on the distribution of named types in Onagraceae and descriptive adjectives seem more useful, although more data on vesturing in the family are needed before patterns of diversity and their extent can be fully ascertained. -
Philip A. Munz, Botanist and Friend Sherwin Carlquist Claremont Graduate University; Rancho Santa Ana Botanic Garden
Aliso: A Journal of Systematic and Evolutionary Botany Volume 8 | Issue 3 Article 2 1975 Philip A. Munz, Botanist and Friend Sherwin Carlquist Claremont Graduate University; Rancho Santa Ana Botanic Garden Follow this and additional works at: http://scholarship.claremont.edu/aliso Part of the Botany Commons Recommended Citation Carlquist, Sherwin (1975) "Philip A. Munz, Botanist and Friend," Aliso: A Journal of Systematic and Evolutionary Botany: Vol. 8: Iss. 3, Article 2. Available at: http://scholarship.claremont.edu/aliso/vol8/iss3/2 ALISO VoL. 8, No. 3, pp. 211-220 SEPTEMBER 22, 1975 PHILIP A. MUNZ, BOTANIST AND FRIEND SHERWIN CAHLQUIST Claremont Graduate School ancl Rancho Santa Ana Botanic Garden, Claremont, California 91711 With the passing of Philip Alexander Munz on April 10, 1974, we, his many friends, have lost a personality whose importance far exceeded what his modest, gentle demeanor suggested. To me, he was a fine scientist whose qualities demonstrated that great contributions to botany can be the product of simple and compelling virtues rather than spectacular charisma. Some of these simple virtues could no doubt be traced to his rural origins. He was born on April 1, 1892, in Saratoga, Wyoming. When he was six, his family moved to Denver. He graduated from high school at the age of sixteen, but his parents then kept him at home for a year because that chronological age made him too young to begin college. H e attended the University of D enver, living at home and traveling to classes on his bicycle. As a sophomore in college, Phil Munz was told he should continue in the sciences. -
Species and Community Profiles to Six Clutches of Eggs, Totaling About 861 Eggs During California Vernal Pool Tadpole Her Lifetime (Ahl 1991)
3 Invertebrates their effects on this species are currently being investi- Franciscan Brine Shrimp gated (Maiss and Harding-Smith 1992). Artemia franciscana Kellogg Reproduction, Growth, and Development Invertebrates Brita C. Larsson Artemia franciscana has two types of reproduction, ovovi- General Information viparous and oviparous. In ovoviviparous reproduction, the fertilized eggs in a female can develop into free-swim- The Franciscan brine shrimp, Artemia franciscana (for- ming nauplii, which are set free by the mother. In ovipa- merly salina) (Bowen et al. 1985, Bowen and Sterling rous reproduction, however, the eggs, when reaching the 1978, Barigozzi 1974), is a small crustacean found in gastrula stage, become surrounded by a thick shell and highly saline ponds, lakes or sloughs that belong to the are deposited as cysts, which are in diapause (Sorgeloos order Anostraca (Eng et al. 1990, Pennak 1989). They 1980). In the Bay area, cysts production is generally are characterized by stalked compound eyes, an elongate highest during the fall and winter, when conditions for body, and no carapace. They have 11 pairs of swimming Artemia development are less favorable. The cysts may legs and the second antennae are uniramous, greatly en- persist for decades in a suspended state. Under natural larged and used as a clasping organ in males. The aver- conditions, the lifespan of Artemia is from 50 to 70 days. age length is 10 mm (Pennak 1989). Brine shrimp com- In the lab, females produced an average of 10 broods, monly swim with their ventral side upward. A. franciscana but the average under natural conditions may be closer lives in hypersaline water (70 to 200 ppt) (Maiss and to 3-4 broods, although this has not been confirmed. -
Vascular Flora of West Clear Creek Wilderness, Coconino and Yavapai
VASCULAR FLORA OF WEST CLEAR CREEK WILDERNESS, COCONINO AND YAVAPAI COUNTIES, ARIZONA By Wendy C. McBride A Thesis Submitted in Partial Fulfillment of the Requirements for the Degree of Master of Science in Biology Northern Arizona University May 2016 Approved: Tina J. Ayers, Ph.D., Chair Randall W. Scott, Ph.D. Liza M. Holeski, Ph.D. ABSTRACT VASCULAR FLORA OF WEST CLEAR CREEK WILDERNESS, COCONINO AND YAVAPAI COUNTIES, ARIZONA WENDY C. MCBRIDE West Clear Creek Wilderness bisects the Mogollon Rim in Arizona, and is nested between the Colorado Plateau and Basin and Range physiographic provinces. Between 2013 and 2016, a floristic inventory vouchered 542 taxa and reviewed 428 previous collections to produce a total plant inventory of 594 taxa from 93 families and 332 genera. The most species rich families Were Asteraceae, Poaceae, Fabaceae, Brassicaceae, Rosaceae, Plantaginaceae, Cyperaceae, and Polygonaceae. Carex, Erigeron, Bromus, Muhlenbergia, and Oenothera Were the most represented genera. Nonnative taxa accounted for seven percent of the total flora. Stachys albens was vouchered as a new state record for Arizona. New county records include Graptopetalum rusbyi (Coconino), Pseudognaphalium pringlei (Coconino), Phaseolus pedicellatus var. grayanus (Coconino), and Quercus rugosa (Coconino and Yavapai). This study quantified and contrasted native species diversity in canyon versus non- canyon floras across the Southwest. Analyses based on eighteen floras indicate that those centered about a major canyon feature shoW greater diversity than non-canyon floras. Regression models revealed that presence of a canyon Was a better predictor of similarity between floras than was the distance betWeen them. This study documents the remarkable diversity found Within canyon systems and the critical, yet varied, habitat they provide in the southwestern U.S. -
Plant List Lomatium Mohavense Mojave Parsley 3 3 Lomatium Nevadense Nevada Parsley 3 Var
Scientific Name Common Name Fossil Falls Alabama Hills Mazourka Canyon Div. & Oak Creeks White Mountains Fish Slough Rock Creek McGee Creek Parker Bench East Mono Basin Tioga Pass Bodie Hills Cicuta douglasii poison parsnip 3 3 3 Cymopterus cinerarius alpine cymopterus 3 Cymopterus terebinthinus var. terebinth pteryxia 3 3 petraeus Ligusticum grayi Gray’s lovage 3 Lomatium dissectum fern-leaf 3 3 3 3 var. multifidum lomatium Lomatium foeniculaceum ssp. desert biscuitroot 3 fimbriatum Plant List Lomatium mohavense Mojave parsley 3 3 Lomatium nevadense Nevada parsley 3 var. nevadense Lomatium rigidum prickly parsley 3 Taxonomy and nomenclature in this species list are based on Lomatium torreyi Sierra biscuitroot 3 western sweet- the Jepson Manual Online as of February 2011. Changes in Osmorhiza occidentalis 3 3 ADOXACEAE–ASTERACEAE cicely taxonomy and nomenclature are ongoing. Some site lists are Perideridia bolanderi Bolander’s 3 3 more complete than others; all of them should be considered a ssp. bolanderi yampah Lemmon’s work in progress. Species not native to California are designated Perideridia lemmonii 3 yampah with an asterisk (*). Please visit the Inyo National Forest and Perideridia parishii ssp. Parish’s yampah 3 3 Bureau of Land Management Bishop Resource Area websites latifolia for periodic updates. Podistera nevadensis Sierra podistera 3 Sphenosciadium ranger’s buttons 3 3 3 3 3 capitellatum APOCYNACEAE Dogbane Apocynum spreading 3 3 androsaemifolium dogbane Scientific Name Common Name Fossil Falls Alabama Hills Mazourka Canyon Div. & Oak Creeks White Mountains Fish Slough Rock Creek McGee Creek Parker Bench East Mono Basin Tioga Pass Bodie Hills Apocynum cannabinum hemp 3 3 ADOXACEAE Muskroot Humboldt Asclepias cryptoceras 3 Sambucus nigra ssp. -
Amargosa River Expert Bioblitz April 7-9 , 2017 Final Report
Amargosa River Expert BioBlitz April 7-9th, 2017 Final Report Photo credit: Janine Knapp Please cite this document as: Parker, S.S., B.S. Cohen, N. Fraga, B. Brown, J. Cole, W. Chatfield-Taylor, K. Guadalupe, G.B. Pauly, D. Cooper, and M. Ordeñana. 2017. Amargosa River Expert BioBlitz. Unpublished Report. The Nature Conservancy. Los Angeles, California. 50 pp. ii Report Contributors: Sophie S. Parker The Nature Conservancy [email protected] Brian S. Cohen The Nature Conservancy [email protected] Naomi Fraga Rancho Santa Ana Botanic Garden [email protected] Brian Brown Natural History Museum of Los Angeles County [email protected] Jeffrey Cole Pasadena City College [email protected] Will Chatfield-Taylor [email protected] Kevin Guadalupe Nevada Department of Wildlife [email protected] Gregory B. Pauly Natural History Museum of Los Angeles County [email protected] Daniel Cooper Cooper Ecological Monitoring, Inc. [email protected] Miguel Ordeñana Natural History Museum of Los Angeles County [email protected] iii Acknowledgements We thank our agency partners at the Bureau of Land Management, particularly C. Otahal, who co-organized the Amargosa River BioBlitz. We also thank the Amargosa Conservancy for supporting the collection efforts, and private land owners B. Brown of China Ranch and S. Sorrells of Shoshone Village for hosting volunteers on their property. iv Table of Contents I. Introduction and Context: Amargosa Watershed Conservation .............................................. 1 II. What is an Expert BioBlitz? ................................................................................................... -
Final El Centro 1 Supplemental Environmental Stewardship Plan
APPENDIX A Biological Survey Report This page intentionally left blank BIOLOGICAL SURVEY REPORT EL CENTRO FENCE REPLACEMENT PROJECT Task Order 27 (Biological Portion) FME Contract: GS10F0070W March 2020 Prepared For: Paul Enriquez Acquisition, Real Estate, and Environmental Director Infrastructure Program Program Management Office Directorate U.S. Customs and Border Protection [email protected] This Page Left Intentionally Blank Table of Contents 1. Introduction ........................................................................................................................................................ 1 2. Project Description ............................................................................................................................................. 1 3. Survey Methods ................................................................................................................................................. 1 3.1. Background ..................................................................................................................................................... 1 4. Site Assessments............................................................................................................................................... 2 5. Environmental Setting ........................................................................................................................................ 3 6. Biological Resources......................................................................................................................................... -
Levin Et Al. 2004
Systematic Botany (2004), 29(1): pp. 147–164 q Copyright 2004 by the American Society of Plant Taxonomists Paraphyly in Tribe Onagreae: Insights into Phylogenetic Relationships of Onagraceae Based on Nuclear and Chloroplast Sequence Data RACHEL A. LEVIN,1,7 WARREN L. WAGNER,1 PETER C. HOCH,2 WILLIAM J. HAHN,3 AARON RODRIGUEZ,4 DAVID A. BAUM,5 LILIANA KATINAS,6 ELIZABETH A. ZIMMER,1 and KENNETH J. SYTSMA5 1Department of Systematic Biology, Botany, MRC 166, Smithsonian Institution, P. O. Box 37012, Washington, District of Columbia 20013-7012; 2Missouri Botanical Garden, P. O. Box 299, St. Louis, Missouri 63166-0299; 3108 White-Gravenor, Box 571003, Georgetown University, Washington, District of Columbia, 20057-1003; 4Departamento de Botan´‡ca y Zoolog´‡a, Apartado Postal 139, 45101 Zapopan, Jalisco, Mexico; 5Department of Botany, University of Wisconsin, 430 Lincoln Drive, Madison, Wisconsin 53706; 6Departamento Cienti!co de Plantas Vasculares, Museo de Ciencias Naturales, Paseo del Bosque s/n, 1900 La Plata, Provincia de Buenos Aires, Argentina 7Author for correspondence ([email protected]) Communicating Editor: Thomas G. Lammers ABSTRACT. Onagraceae are a family of 17 genera in seven tribes, with the majority of species in tribes Onagreae and Epilobieae. Despite the species-richness of these two tribes, to date no phylogenetic study has been done with suf!cient taxon sampling to examine relationships between and within these tribes. In this study, we used DNA sequence data from one nuclear region (ITS) and two chloroplast regions (trnL-trnF and rps16) to infer phylogenetic relationships among 93 taxa across the family, with concentrated sampling in the large tribe Onagreae. -
Observations of Meiotic Chromosomes in the Onagraceae Harlan Lewis University of California, Los Angeles
Aliso: A Journal of Systematic and Evolutionary Botany Volume 4 | Issue 1 Article 3 1958 Observations of Meiotic Chromosomes in the Onagraceae Harlan Lewis University of California, Los Angeles Peter H. Raven University of California, Los Angeles C. S. Venkatesh University of California, Los Angeles Hale L. Wedberg University of California, Los Angeles Follow this and additional works at: http://scholarship.claremont.edu/aliso Part of the Botany Commons Recommended Citation Lewis, Harlan; Raven, Peter H.; Venkatesh, C. S.; and Wedberg, Hale L. (1958) "Observations of Meiotic Chromosomes in the Onagraceae," Aliso: A Journal of Systematic and Evolutionary Botany: Vol. 4: Iss. 1, Article 3. Available at: http://scholarship.claremont.edu/aliso/vol4/iss1/3 ALISO VOL. 4, No. 1, pp. 73-86 APRIL 25, 1958 OBSERVATIONS OF MEIOTIC CHROMOSOMES IN THE ONAGRACEAE 1 2 HARLAN LEWIS, PETER H. RAVEN, C. S. VENKATESH , AND HALE L. WEDBERG University of California at Los Angeles INTRODUCTION Chromosome studies in the Onagraceae are well known from the extensive work of many investigators on the ring-forming species of Oenothera (see Cleland, 1950). In another genus, Clarkia, chromosome number has been determined for all the known species and several species have been studied in detail in regard to structural heterozygotes and supernumerary chromosomes (for references, see Lewis and Lewis, 1955). In both of these genera, chromosome studies have contributed greatly to an understanding of phylogenetic relationships, and in the latter they have been of great value in the delimitation of species. Consequently, we have examined chromosomes of a number of other taxa of the Onagraceae, because we have been curious to know the pattern of chromosome differentiation in the family, and because we think that such data are indispensable to an understanding of phylogenetic relationships within the family.