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Yield Variations of Some Common Wild Berries in Finland in 1956–1996
Ann. Bot. Fennici 36: 299–314 ISSN 0003-3847 Helsinki 14 December 1999 © Finnish Zoological and Botanical Publishing Board 1999 Yield variations of some common wild berries in Finland in 1956–1996 Tuomo H. Wallenius Wallenius, T. H., Department of Ecology and Systematics, P.O. Box 47, FIN-00014 University of Helsinki, Finland Received 22 January 1999, accepted 6 September 1999 Wallenius, T. H. 1999: Yield variations of some common wild berries in Finland in 1956–1996. — Ann. Bot. Fennici 36: 299–314. Estimates of some of the most common wild berry abundances and changes in their yields compared with the previous year were made in 1956–1996 as a part of the annual autumn game inquiries. The berries included in the inquiry were bilberry (Vaccinium myrtillus L.), cowberry (Vaccinium vitis-idaea L.), cloudberry (Rubus chamaemorus L.), both cranberry species (Vaccinium oxycoccos L. and V. microcarpum (Rupr.) Schmalh.), crowberry (Empetrum nigrum L.), rowan (Sorbus aucuparius L.), and wild strawberry (Fragaria vesca L.). On average, 500 observers throughout the country participated annually in the inquiry. Despite the subjective nature of the berry yield estimates, the results are valid for assessing annual changes in the yields of the most common wild berries as well as in long-term trends. The results are coincident with berry researchers’ observations that the yields of cloudberry and wild strawberry have declined during the last decades. The significant (p < 0.01) positive correlations be- tween the yields of the different berry species indicate that meteorological factors influ- ence yields of most berry species in a similar way. -
And Ex Vitro- Propagated Blueberry Plants At
CHARACTERISTICS OF IN VITRO- AND EX VITRO- PROPAGATED BLUEBERRY PLANTS AT MORPHOLOGICAL, CHEMICAL AND MOLECULAR LEVELS By © JURAN CHANDRA GOYALI B. Sc. Ag., M. Sc. A thesis submitted to the School of Graduate Studies in partial fulfillment of the requirements for the degree of Doctor of Philosophy Department of Biology Memorial University of Newfoundland January 2018 St. John’s Newfoundland and Labrador Canada This work is dedicated to my beloved wife Shikha Roy ii ABSTRACT The lowbush blueberry (Vaccinium angustifolium Ait.), a commercially important fruit crop in Canada and USA, is one of the richest sources of antioxidant metabolites which have highly potential to reduce the incidence of several degenerative diseases. The aim of this study is to investigate the effect of propagation on the morphological, chemical and molecular characteristics of blueberries. The study evaluated the genetic and epigenetic variation in micropropagated plants. A lowbush wild clone ‘QB9C’ and the cultivar ‘Fundy’ were studied after being propagated by conventional softwood cutting (SC), and by tissue culture (TC) using nodal explants. The antioxidant metabolites in leaves and fruits of both genotypes were investigated in different maturity stages. The TC-regenerated plants were grown more vigorously and produced higher number of stems, branches, and larger leaves compared to SC plants. However, TC plants of both genotypes produced less flowers and fruits compared with SC counterparts. Micropropagation influenced the synthesis of phenolic and flavonoid compounds, and their antioxidant activities in blueberry which were genotype specific. ‘QB9C’ plants were highly influenced by micropropagation for their phytochemical content and antioxidant capacity. Leaves contained substantially higher levels of polyphenolics, flavonoids and proanthocyanidins than berries. -
Week Five: Indigenous Food Focus Salmonberry/Cloudberry Day!!
Farm to School Month – Week Five: Indigenous Food Focus Salmonberry/Cloudberry Day!! Many thanks go out to Melissa Chlupach, Regional Healthcare Dietitian with NANA Management Services, for all her help with all the information she has provided me for each Wednesday this month celebrating Indigenous Foods We Eat! All information I have listed below is based on the materials she has passed along. Thank you, Melissa!! SALMONBERRY/CLOUDBERRY Let’s learn about salmonberries and cloudberries today!! Why take a whole day to look at these two berries? Well, whether you are in Southcentral, the Kenai, or the Southeast Alaska and pick high bush salmonberries or live in Northern or Western Alaska and pick low bush salmonberries (cloudberries), you know how healthy and delicious these little berries can be!! The Roots of Salmonberry/Cloudberry History • Both of these berries are members of the rose (Rosaceae) family and one or the other is found all around Alaska. • Even though the some of the colors and shape of these berries are similar and they are in the same family, these two berries grow and taste very different. • All Alaska wild berries, have high levels of antioxidants. Antioxidants are a group of physiologically active compounds that work to neutralize free radicals (molecules with unpaired electrons). • Historical references document early use of cloudberries to prevent and treat scurvy as well as the medicinal use of the roots and leaves of the plant. • Both berries are considered an important food of the Alaska Native people as sources rich in vitamins A and C. Let’s Move into the Science of Salmonberries and Cloudberries Pronunciation: ˈsæmənˌbɛri and klaʊd ˌbɛri Yup’ik name: atsalugpiaq Iñupiaq name: aqpik Sugt’stun name: alagnaq aqagwik Unangam Tunuu name: alagnan algnan Tlingit name: was’x’aan tléigu néx’w Family: Rosaceae (both) Genus: Rubus (both) Species: R. -
Exploring the Opportunities and Constraints to the Success of Newfoundland’S Wild Lowbush Blueberry (Vaccinium Angustifolium Aiton) Industry
Exploring the Opportunities and Constraints to the Success of Newfoundland’s Wild Lowbush Blueberry (Vaccinium Angustifolium Aiton) Industry by Chelsea Major A Thesis presented to The University of Guelph In partial fulfilment of requirements for the degree of Master of Arts in Geography, Environment and Geomatics Guelph, Ontario, Canada © Chelsea Major, January, 2021 ABSTRACT EXPLORING THE OPPORTUNITIES AND CONSTRAINTS TO THE SUCCESS OF NEWFOUNDLAND’S WILD LOWBUSH BLUEBERRY INDUSTRY Chelsea Major Advisors: Dr. Evan Fraser University of Guelph, 2021 Dr. Faisal Moola Newfoundland and Labrador’s biophysical environment has not been particularly conducive to crop agriculture. The province’s agricultural industry accounts for only 1% of its GDP. The number of farms, farm operators, farmland, and cropland within Newfoundland and Labrador are all experiencing decline outside of national averages. This has led to great provincial interest in increasing agricultural capacity in the province. A potential avenue for agricultural development is strengthening the province’s wild blueberry industry. Through a mixed methods case study that involved a geographic information system-based multi-criteria land suitability analysis and interviews, this research explores the potential for this industry and the different challenges and values that may impact it. This thesis analyzes the biophysical potential for this industry through the manipulation of various geospatial layers to determine suitability for commercial wild lowbush blueberry farming. This thesis also engages with perceptions of the barriers that impede the wild lowbush blueberry industry in Newfoundland as well as the potential opportunities to strengthen this sector. Finally, it examines the socio-cultural values surrounding wild lowbush blueberries in Newfoundland and cautions that these values may be more important than the potential market value created through blueberry commercialization. -
The Genus Vaccinium in North America
Agriculture Canada The Genus Vaccinium 630 . 4 C212 P 1828 North America 1988 c.2 Agriculture aid Agri-Food Canada/ ^ Agnculturo ^^In^iikQ Canada V ^njaian Agriculture Library Brbliotheque Canadienno de taricakun otur #<4*4 /EWHE D* V /^ AgricultureandAgri-FoodCanada/ '%' Agrrtur^'AgrntataireCanada ^M'an *> Agriculture Library v^^pttawa, Ontano K1A 0C5 ^- ^^f ^ ^OlfWNE D£ W| The Genus Vaccinium in North America S.P.VanderKloet Biology Department Acadia University Wolfville, Nova Scotia Research Branch Agriculture Canada Publication 1828 1988 'Minister of Suppl) andS Canada ivhh .\\ ailabla in Canada through Authorized Hook nta ami other books! or by mail from Canadian Government Publishing Centre Supply and Services Canada Ottawa, Canada K1A0S9 Catalogue No.: A43-1828/1988E ISBN: 0-660-13037-8 Canadian Cataloguing in Publication Data VanderKloet,S. P. The genus Vaccinium in North America (Publication / Research Branch, Agriculture Canada; 1828) Bibliography: Cat. No.: A43-1828/1988E ISBN: 0-660-13037-8 I. Vaccinium — North America. 2. Vaccinium — North America — Classification. I. Title. II. Canada. Agriculture Canada. Research Branch. III. Series: Publication (Canada. Agriculture Canada). English ; 1828. QK495.E68V3 1988 583'.62 C88-099206-9 Cover illustration Vaccinium oualifolium Smith; watercolor by Lesley R. Bohm. Contract Editor Molly Wolf Staff Editors Sharon Rudnitski Frances Smith ForC.M.Rae Digitized by the Internet Archive in 2011 with funding from Agriculture and Agri-Food Canada - Agriculture et Agroalimentaire Canada http://www.archive.org/details/genusvacciniuminOOvand -
The SP Vander Kloet Vaccinium Collections11 This
337 REVIEW / SYNTHÈSE Beyond botany to genetic resource preservation: the S.P. Vander Kloet Vaccinium collections1 Kim E. Hummer, Andrew R. Jamieson, and Ruth E. Newell Abstract: Sam P. Vander Kloet, botanist, traveled the world examining and obtaining specimens to redefine infrageneric taxonomic units within Vaccinium L., family Ericaceae. Besides his botanical treatises, his legacy includes herbarium voucher specimens and ex situ genetic resource collections including a seed bank and living plant collections at the Agricul- ture and Agri-Food Canada Research Centre, Kentville, Nova Scotia, Canada; the K.C. Irving Environmental Science Centre and Harriet Irving Botanical Gardens, Acadia University, Wolfville, Nova Scotia, Canada; the Canadian Clonal Genebank, Harrow, Ontario, Canada; and the US Department of Agriculture, Agricultural Research Service, National Clonal Germ- plasm Repository, Corvallis, Oregon, United States. Sam P. Vander Kloet’s collections include representatives of wild Erica- ceae with special emphasis on collections of North American and subtropical endemic Vaccinium species. These reference collections are significant and represent a lifetime of dedicated research. Representatives of his heritage collections have now been deposited not only in American genebanks (in Canada and the United States) but also in the World Genebank in Svalbard, Norway, for long term conservation and future evaluation of Vaccinium for the service of humanity. The bequest of his wild collected germplasm will continue to be available to facilitate utilization of an extended Vaccinium gene pool for development and breeding throughout the world. Key words: germplasm conservation, blueberry, genetics, genebanks, plant exploration. Résumé : Sam P. Vander Kloet, botaniste, a voyagé à travers le monde en examinant et obtenant des spécimens pour redéfi- nir les unités taxonomiques infragénériques au sein des Vaccinium L., famille des Ericaceae. -
Foraging in Boreal Forest: Wild Food Plants of the Republic of Karelia, NW Russia
foods Article Foraging in Boreal Forest: Wild Food Plants of the Republic of Karelia, NW Russia Valeria Kolosova 1,2, Olga Belichenko 1,* , Alexandra Rodionova 3 , Denis Melnikov 4 and Renata Sõukand 1,* 1 Department of Environmental Sciences, Informatics and Statistics, Ca’ Foscari University of Venice, Via Torino 155, 30172 Venice, Italy; [email protected] 2 Institute for Linguistic Studies, Russian Academy of Sciences, Tuchkov pereulok 9, 199004 St Petersburg, Russia 3 Institute of Linguistics, Literature and History of the Karelian Research Centre, Russian Academy of Sciences, Pushkinskaya St. 11, 185910 Petrozavodsk, Russia; [email protected] 4 Komarov Botanical Institute, Russian Academy of Sciences, Professor Popov St. 2, 197376 St Petersburg, Russia; [email protected] * Correspondence: [email protected] (O.B.); [email protected] (R.S.) Received: 4 July 2020; Accepted: 27 July 2020; Published: 29 July 2020 Abstract: While the current consumption of wild food plants in the taiga of the American continent is a relatively well-researched phenomenon, the European taiga area is heavily underrepresented in the scientific literature. The region is important due to its distinctive ecological conditions with restricted seasonal availability of wild plants. During an ethnobotanical field study conducted in 2018–2019, 73 people from ten settlements in the Republic of Karelia were interviewed. In addition, we conducted historical data analysis and ethnographical source analysis. The most widely consumed wild food plants are forest berries (three Vaccinium species, and Rubus chamaemorus), sap-yielding Betula and acidic Rumex. While throughout the lifetime of the interviewees the list of used plants did not change considerably, the ways in which they are processed and stored underwent several stages in function of centrally available goods, people’s welfare, technical progress, and ideas about the harm and benefit of various products and technological processes. -
Acadian-Appalachian Alpine Tundra
Acadian-Appalachian Alpine Tundra Macrogroup: Alpine yourStateNatural Heritage Ecologist for more information about this habitat. This is modeledmap a distributiononbased current and is data nota substitute for field inventory. based Contact © Josh Royte (The Nature Conservancy, Maine) Description: A sparsely vegetated system near or above treeline in the Northern Appalachian Mountains, dominated by lichens, dwarf-shrubland, and sedges. At the highest elevations, the dominant plants are dwarf heaths such as alpine bilberry and cushion-plants such as diapensia. Bigelow’s sedge is characteristic. Wetland depressions, such as small alpine bogs and rare sloping fens, may be found within the surrounding upland matrix. In the lower subalpine zone, deciduous shrubs such as nannyberry provide cover in somewhat protected areas; dwarf heaths including crowberry, Labrador tea, sheep laurel, and lowbush blueberry, are typical. Nearer treeline, spruce and fir that State Distribution: ME, NH, NY, VT have become progressively more stunted as exposure increases may form nearly impenetrable krummholz. Total Habitat Acreage: 8,185 Ecological Setting and Natural Processes: Percent Conserved: 98.1% High winds, snow and ice, cloud-cover fog, and intense State State GAP 1&2 GAP 3 Unsecured summer sun exposure are common and control ecosystem State Habitat % Acreage (acres) (acres) (acres) dynamics. Found mostly above 4000' in the northern part of NH 51% 4,160 4,126 0 34 our region, alpine tundra may also occur in small patches on ME 44% 3,624 2,510 1,082 33 lower ridgelines and summits and at lower elevations near the Atlantic coast. NY 3% 285 194 0 91 VT 1% 115 115 0 0 Similar Habitat Types: Acadian-Appalachian Montane Spruce-Fir-Hardwood Forests typically occur downslope. -
Sensitive Species That Are Not Listed Or Proposed Under the ESA Sorted By: Major Group, Subgroup, NS Sci
Forest Service Sensitive Species that are not listed or proposed under the ESA Sorted by: Major Group, Subgroup, NS Sci. Name; Legend: Page 94 REGION 10 REGION 1 REGION 2 REGION 3 REGION 4 REGION 5 REGION 6 REGION 8 REGION 9 ALTERNATE NATURESERVE PRIMARY MAJOR SUB- U.S. N U.S. 2005 NATURESERVE SCIENTIFIC NAME SCIENTIFIC NAME(S) COMMON NAME GROUP GROUP G RANK RANK ESA C 9 Anahita punctulata Southeastern Wandering Spider Invertebrate Arachnid G4 NNR 9 Apochthonius indianensis A Pseudoscorpion Invertebrate Arachnid G1G2 N1N2 9 Apochthonius paucispinosus Dry Fork Valley Cave Invertebrate Arachnid G1 N1 Pseudoscorpion 9 Erebomaster flavescens A Cave Obligate Harvestman Invertebrate Arachnid G3G4 N3N4 9 Hesperochernes mirabilis Cave Psuedoscorpion Invertebrate Arachnid G5 N5 8 Hypochilus coylei A Cave Spider Invertebrate Arachnid G3? NNR 8 Hypochilus sheari A Lampshade Spider Invertebrate Arachnid G2G3 NNR 9 Kleptochthonius griseomanus An Indiana Cave Pseudoscorpion Invertebrate Arachnid G1 N1 8 Kleptochthonius orpheus Orpheus Cave Pseudoscorpion Invertebrate Arachnid G1 N1 9 Kleptochthonius packardi A Cave Obligate Pseudoscorpion Invertebrate Arachnid G2G3 N2N3 9 Nesticus carteri A Cave Spider Invertebrate Arachnid GNR NNR 8 Nesticus cooperi Lost Nantahala Cave Spider Invertebrate Arachnid G1 N1 8 Nesticus crosbyi A Cave Spider Invertebrate Arachnid G1? NNR 8 Nesticus mimus A Cave Spider Invertebrate Arachnid G2 NNR 8 Nesticus sheari A Cave Spider Invertebrate Arachnid G2? NNR 8 Nesticus silvanus A Cave Spider Invertebrate Arachnid G2? NNR -
The Ethnoecology and Reproductive Ecology of Bakeapple (Rubus Chamaemorus L., Rosaceae) in Southern Labrador
The ethnoecology and reproductive ecology of bakeapple (Rubus chamaemorus L., Rosaceae) in southern Labrador Amanda Karst B.Sc., University of Regina, 2002 A Thesis Submitted in Partial Fulfillment of the Requirements for the Degree of MASTER OF SCIENCE in the Department of Biology O Amanda Karst, 2005 University of Victoria All rights reserved. This thesis may not be reproduced in whole or in part, by photocopy of other means, without the permission of the author Co-supervisors Dr. Nancy J. Turner and Dr. Gerry Allen ABSTRACT Bakeapple (Rubus chamaemovus L.; Rosaceae) is a circumpolar herbaceous perennial typically found in peat bogs. Bakeapple fruits have served as a vital food - resource for many northern peoples including those of the Subarctic and Arctic areas of North America. Although the reproductive ecology and habitat requirements of this plant have been studied extensively in Scandinavia, there has been scant research on bakeapple populations in Canada. Furthermore, there has been little documentation of its use or ethnoecology in many parts of Canada, especially in Newfoundland and Labrador. For this research I worked in the predominantly Metis community of Charlottetown, Labrador, where there has been a long tradition of bakeapple use. My objectives were to: 1. Document traditional use and major changes in use of bakeapple by this community; 2. Determine the most important factors influencing fruit production in local bakeapple populations; and 3. Link community observations on the ecology of this species with previous research and ecological data from my study in the area. To examine traditional use and knowledge of bakeapple in the community of Charlottetown, I conducted semi-directed in-depth interviews with knowledgeable bakeapple pickers in the community. -
The Ecology of Autogamy in Wild Blueberry (Vaccinium Angustifolium Aiton): Does the Early Clone Get the Bee?
agronomy Article The Ecology of Autogamy in Wild Blueberry (Vaccinium angustifolium Aiton): Does the Early Clone get the Bee? Francis A. Drummond 1,* and Lisa J. Rowland 2 1 School of Biology and Ecology, University of maine, 5722 Deering, Orono, ME 04469, USA 2 Genetic Improvement of Fruits and Vegetables Laboratory, Henry A. Wallace Beltsville Agricultural Research Center, U.S. Department of Agriculture-Agricultural Research Service, Beltsville, MD 20705, USA; [email protected] * Correspondence: [email protected]; Tel.: +1-207-944-4122 Received: 15 July 2020; Accepted: 5 August 2020; Published: 7 August 2020 Abstract: Wild blueberry, Vaccinium angustifolium Aiton, for the most part requires cross-pollination. However, there is a continuum across a gradient from zero to 100% in self-compatibility. We previously found by sampling many fields that 20–25% of clones during bloom have high levels of self-compatibility ( 50%). In 2009–2011, and 2015 we studied the ecology of self-pollination in ≥ wild blueberry, specifically its phenology and bee recruitment and subsequent bee density on bloom. We found that highly self-compatible clones were predominantly early blooming genotypes in the wild blueberry population. On average, fruit set and berry weight were highest in self-compatible genotypes. The bumble bee community (queens only early in the spring) was characterized by bees that spent large amounts of time foraging in self-compatible plant patches that comprised only a small proportion of the blueberry field, the highest density in the beginning of bloom when most genotypes in bloom were self-compatible. As bloom proceeded in the spring, more plants were in bloom and thus more land area was occupied by blooming plants. -
Cairngorms Wild Plants Keys Mountains
Unlock the outdoors Cairngorms wild plants keys Mountains An outdoor learning resource for group leaders KEYS to Cairngorms mountains Key The language of the Cairngorms 1 Gaelic and Scots words for plants and places Key Lines on the landscape 2 Poems and prose to inspire us Key The shaping of our mountains 3 Cairngorms geology and erosion Key Natural treelines 4 In search of ‘krummholz’ Key Patterns in the heather moors 5 Red grouse and the landscape of muirburn Key Blanket bogs 6 Sphagnum mosses and peat hags Key A splash of spring green 7 Spring lines and flushes Key Life in the snow and ice 8 Explore the arctic alpine world of Scotland Key What’s that plant? 9 Spotter guides with handy plant ID tips Cairngorms mountains keys | Contents Unlocking Cairngorms mountains How to use the KEYS Each KEY includes an ‘Idea’ and short ‘Activity’, with a ‘Discussion’ The KEYS explore different section to take things further. You aspects of Cairngorms mountain don’t need to know the answers to habitats and wildlife and are a the questions, they are prompts to learning resource for leaders. stimulate thought and discussion. Whether hill walking, climbing Have fun with them. Choose KEYS or wildlife watching, there will to suit your group. Fit the KEYS into be something in the KEYS for short stops or lunch breaks with you to help enrich your group’s your group. Or take more time and experience of this amazing habitat. unlock more of the Cairngorms. ©Gwenda Diack Cairngorms mountains keys | Introduction Cairngorms mountains Important Plant Areas are the fascinating flora which is one most important places in the of the reasons why Plantlife world for wild plant and fungal identified the Cairngorms as diversity that can be protected an Important Plant Area (IPA).