Vörös Lista Red List

Total Page:16

File Type:pdf, Size:1020Kb

Vörös Lista Red List Vörös Lista Magyarország veszélyeztetett fa- és cserjefajai Red List Threatened tree and shrub species of Hungary Összeállította / Compiled by: BARTHA Dénes Soproni Egyetem Kiadó / University of Sopron Press Sopron 2019 Vörös Lista Magyarország veszélyeztetett fa- és cserjefajai Red List Threatened tree and shrub species of Hungary Összeállította / Compiled by: BARTHA Dénes Soproni Egyetem Kiadó / University of Sopron Press Sopron 2019 1 Lektorálta / Revised by: KERÉNYI-NAGY Viktor (Crataegus, Rosa) SOMLYAY Lajos (Sorbus) ISBN 978-963-334-328-9 Kiadó / Published by: Soproni Egyetem Kiadó / University of Sopron Press Felelős kiadó / Responsible publisher: Dr. ALPÁR Tibor László kutatási és külügyi rektorhelyettes / Vice Rector of Scientific and Foreign Affairs © Soproni Egyetem, Erdőmérnöki Kar, Növénytani és Természetvédelmi Intézet / University of Sopron, Faculty of Forestry, Institute of Botany and Nature Conservation A kiadvány a Soproni Egyetem Erdőmérnöki Kar Növénytani és Természetvédelmi Intézete anyagi támogatásával valósult meg / This publication has been financially supported by the Institute of Botany and Nature Conservation operating at the University of Sopron, Faculty of Forestry Nyomdai kivitelezés / Printed by: LŐVÉRPRINT Nyomda / LŐVÉRPRINT Press H-9400 Sopron Ady Endre u. 5. Ajánlott hivatkozási forma / Recommended citation form: BARTHA D. (2019): Vörös Lista. Magyarország veszélyeztetett fa- és cserjefajai. / Red List. Threatened tree and shrub species of Hungary. – Soproni Egyetem Kiadó / University of Sopron Press, Sopron, 59 pp. 2 Bevezetés Vörös listákat, vörös könyveket az 1960-as évek közepétől állítanak össze világszerte rendszertani kategóriákra (taxon-csoportokra), élőhelytípusokra vagy adott területekre. Ezen dokumentumok feladata az, hogy a veszélyeztetettség mértékéről számot adjanak, s erre az illetékesek figyelmét fölhívják. A dendroflórát (is) illetően különböző térléptékű összeállítások léteznek, például: globális: WALTERS & GILLETT (1998), OLDFIELD et al. (1998), IUCN (2019) kontinentális: BILZ et al. (2011) (Európa) regionális: BARTHA (1996) (Közép-Európa), EASTWOOD et al. (2009) (Közép- Ázsia), KADLEČÍK (2014) (Kárpátok) lokális: RAKONCZAY (1989), BARTHA (1991b, 2000), KIRÁLY (2007) Ugyanakkor dendrotaxon-csoportokra is készültek vörös listák: globális: SHAW et al. (2014) (Betulaceae), RIVERS et al. (2016) (Magnoliaceae), BEECH et al. (2017) (Theaceae), OLDFIELD & EASTWOOD (2007) (Quercus), BARSTOW et al. (2018) (Fraxinus) kontinentális-regionális: KUA & WESTWOOD (2017) (USA tölgyfajai) lokális: KERÉNYI-NAGY (2012e, 2015) (Crataegus), KERÉNYI-NAGY (2010, 2012a) (Rosa) Magyarországon a fa- és cserjefajok veszélyeztetettségéről először NÉMETH (1989) összeállítása adott számot saját kategóriarendszerével, amelyet átvettek BARTHA (1991b, 1992a) vörös listái is. A későbbiekben az IUCN kategória- és kritériumrendszere (IUCN, 1994; GÄRDENFORS et al., 1999; IUCN/SCC, 1999; IUCN, 2001) alapján készültek vörös listák (BARTHA, 2000; KIRÁLY, 2007), ugyan utóbbinál a kritériumok megadása nélkül. A mostani kiadvány összeállítását nagyban megkönnyítette, hogy az elmúlt két év- tizedben átfogó tanulmányok (pl. BARTHA, 1989a,b, 1990, 1991a,b, 1992b,c, 1992-1993, 1993; BARTHA et al., 2005), illetve monografikus feldolgozások (pl. BARTHA et al., 1999; BARTHA, 2010, 2012; FARKAS, 1999) születtek a fa- és cserjefajok védelmét és veszélyeztetetségét illetően, továbbá az előfordulási adataik is ismertebbé és pontosabbá váltak (BARTHA & MÁTYÁS, 1995; BARTHA et al., 2015). Ez az összeállítás – a szokásokkal ellentétben (IUCN, 2019) – azokat a hibrideket is tartalmazza, amelyeknek szülőfaja(i) révén természetvédelmi értéket lehet tulajdonítani. Külön szerepeltetjük a gyűjtőfajok kisfajait, valamint az alfajokat is. Köszönet jár Kerényi-Nagy Viktornak a Crataegus és Rosa nemzetségek taxonjai, Somlyay Lajosnak a tágabb értelemben vett Sorbus nemzetség taxonjai veszélyeztetett- ségének revideálásáért, Nagy Jánosnak a Vaccinium microcarpum-mal kapcsolatos ismeretei megosztásáért, Csiszár Ágnesnek a fordításban nyújtott segítségéért, Csécsei Ildikónak a technikai szerkesztésért. 3 Introduction Red lists and red books have been compiled worldwide since the mid-1960s for taxonomy categories (taxon groups), habitat types or specific areas. The purpose of these documents is to give an account of vulnerability degree and draw the attention of the competent authorities. There are different spatial assessments for dendroflora (also): global: WALTERS & GILLETT (1998), OLDFIELD et al. (1998), IUCN (2019) continental: BILZ et al. (2011) (Europe) regional: BARTHA (1996) (Central-Europe), EASTWOOD et al. (2009) (Central-Asia), KADLEČÍK (2014) (Carpathians) local: RAKONCZAY (1989), BARTHA (1991b, 2000), KIRÁLY (2007) Red lists have been compiled for dendrotaxon groups as well: global: SHAW et al. (2014) (Betulaceae), RIVERS et al. (2016) (Magnoliaceae), BEECH et al. (2017) (Theaceae), OLDFIELD & EASTWOOD (2007) (Quercus), BARSTOW et al. (2018) (Fraxinus) continental-regional: KUA & WESTWOOD (2017) (Oaks of USA) local: KERÉNYI-NAGY (2012e, 2015) (Crataegus), KERÉNYI-NAGY (2010, 2012a) (Rosa) Compilation of NÉMETH (1989) has reported firstly on the vulnerability of tree- and shrub species in Hungary, with its own category system. This category system was also taken over by the red lists of BARTHA (1991b, 1992a). Subsequently, based on the category and criteria system of IUCN (IUCN, 1994; GÄRDENFORS et al., 1999; IUCN/SCC, 1999; IUCN, 2001) red lists were compiled (BARTHA, 2000; KIRÁLY, 2007), the latter without the criteria being specified. The compilation of this publication has been greatly facilitated by extensive studies over the past two decades (eg BARTHA, 1989a,b, 1990, 1991a,b, 1992b,c, 1992-1993, 1993; BARTHA et al., 2005) and monographic elaborations (eg BARTHA et al., 1999; BARTHA, 2010, 2012; FARKAS, 1999) on the conservation and vulnerability of tree- and shrub species, furthermore their occurrence data have become more known and accurate (BARTHA & MÁTYÁS, 1995; BARTHA et al., 2015). This compilation, unlike usual (IUCN, 2019), also includes hybrids whose can be attributed conservation value after their parent species. Microspecies of species aggregate and subspecies are also included separately. It deserves to be thanks to Viktor Kerényi-Nagy for the taxonomy of Crataegus and Rosa genera, Lajos Somlyay for revising the vulnerability of the taxa of genus Sorbus sensu lato, János Nagy for sharing his knowledge about Vaccinium microcarpum, Ágnes Csiszár for translation, Ildikó Csécsei for technical editing. 4 A veszélyeztetettségi kategóriák értelmezése / Interpretation of Red List Categories Mivel a fajok (taxonok) kipusztulását valószínűségi folyamatként kezeljük, ezért a veszélyeztetettségi (fenyegetettségi) kategóriákba való besorolás nem más, mint egy kipusztulási kockázatbecslés. Tehát a veszélyeztetettségi kategória azt mutatja meg, hogy milyen valószínűsége van adott faj (taxon) adott területen való kipusztulásának. / As species (taxa) extinction is interpreted as a probability process, classification in threatened categories is a risk assessment of extinction. Thus, the threatened category indicates the likelihood that a given species (taxon) will be extinguished in a given area. Veszélyeztetettségi kategóriák / Red List Categories: Forrás / Source: IUCN STANDARDS AND PETITIONS SUBCOMMITTEE (2017): Guide- lines for Using the IUCN Red List Categories and Criteria. Version 13. – Prepared by the Standards and Petitions Subcommittee. Downloadable from http://www. iucnredlist.org/documents/RedListGuidelines.pdf. Kipusztult – Extinct (EX) A taxon kipusztult, ha utolsó egyede minden kétséget kizáróan már nem él. A taxon feltehetően kipusztult, ha az ismert és/vagy várható élőhelyeken, a megfelelő időpontokban (napi, évszakos, éves) végzett alapos felmérés ellenére a vizsgált idő- tartományon belül nem sikerült rögzíteni egy egyedet sem. A felméréseknek a taxon életciklusának és életformájának megfelelő időszakaszon belül kell lenniük. Természetből kipusztult – Extinct in the wild (EW) A taxon természetből kipusztult, ha korábbi természetes élőhelyén már nem él, csak termesztésben/tenyészetben, fogságban található vagy meghonosodott/meghonosított populációja (vagy populációi) ismert(ek) a korábbi előfordulási területén kívül. A taxon a természetben feltehetően kipusztult, ha az ismert és/vagy várható élőhelyeken, a megfelelő időpontokban (napi, évszakos, éves) végzett alapos felmérés ellenére a vizsgált időtartományon belül nem sikerült rögzíteni egy egyedet sem. A felméréseknek a taxon életciklusának és életformájának megfelelő időszakaszon belül kell lenniük. Súlyosan veszélyeztetett – Critically endangered (CR) A taxon súlyosan veszélyeztetett, ha a rendelkezésre álló legjobb bizonyítékok azt mutatják, hogy megfelel a súlyosan veszélyeztetett kategória A–E kritériuma bár- melyikének, és ezért vélhetően a természetben rendkívül nagy a kipusztulás veszélye. Veszélyeztetett – Endangered (EN) A taxon veszélyeztetett, ha a rendelkezésre álló legjobb bizonyítékok azt mutatják, hogy megfelel a veszélyeztetett kategória A–E kritériuma bármelyikének, és ezért vélhetően a természetben nagyon nagy a kipusztulás veszélye. 5 Sebezhető – Vulnerable (VU) A taxon sebezhető, ha a rendelkezésre álló legjobb bizonyítékok azt mutatják, hogy megfelel a sebezhető kategória A–E kritériuma bármelyikének, és ezért vélhetően a természetben nagy a kipusztulás veszélye. Veszélyeztetettség közeli – Near threatened (NT) A taxon veszélyeztetettség
Recommended publications
  • Plums on the Prairies by Rick Sawatzky
    Plums on the Prairies by Rick Sawatzky Information from Literature Much has been published about pollination, pollinators, pollinizers, fertilization and fruit set in text books and periodicals. The definitions are not difficult. Pollination is the movement of pollen among compatible flowering plants (cross-pollination) or from anthers to stigmas on the same plant or different plants of the same clone (self-pollination). Many plants will self-pollinate but set very few fruit; some authors consider them self- pollinating but they are definitely not self-fruitful. Self-fruitful plants (and clones) set a crop of fruit after self-pollination; some of these plants bear fruit with no seeds (parthenocarpy); others develop seeds with embryos that are genetically identical to the parent plant (apomixis); and others produce haploid seeds that develop from an unfertilized egg cell. (When haploid seeds germinate they are very weak seedlings with only half the chromosomes of normal seedlings.) Regarding temperate zone tree fruits, self-pollination and fruit set does not mean self-fertility and the development of normal seeds. Many temperate zone small fruit species (e.g. strawberries and raspberries) are self-fertile and develop maximum yields of fruit with normal seeds as the result of self-pollination by insects. Pollinators, usually insects, are vectors of pollen movement. Pollinizers are plants which provide the appropriate pollen for other plants. Fertilization is the process in which gametes from the pollen unite with egg cells in the ovary of the flower. Normal seeds are usually the result of this process. Also, the principles are easily understood. Poor fertilization in plums and other Prunus species results in a poor fruit set.
    [Show full text]
  • New Nomenclature Combinations in the Green Alder Species Complex
    A peer-reviewed open-access journal PhytoKeys 56:New 1–6 nomenclature(2015) combinations in the green alder species complex (Betulaceae) 1 doi: 10.3897/phytokeys.56.5225 RESEARCH ARTICLE http://phytokeys.pensoft.net Launched to accelerate biodiversity research New nomenclature combinations in the green alder species complex (Betulaceae) Joyce Chery1 1 Department of Integrative Biology, University of California, Berkeley, California 94720 Corresponding author: Joyce Chery ([email protected]) Academic editor: Hugo De Boer | Received 1 May 2015 | Accepted 10 June 2015 | Published 14 August 2015 Citation: Chery J (2015) New nomenclature combinations in the green alder species complex (Betulaceae). PhytoKeys 56: 1–6. doi: 10.3897/phytokeys.56.5225 Abstract The name Alnus viridis (Chaix) DC., based on Betula viridis Chaix (1785), has traditionally been attributed to green alders although it is based on a later basionym. Alnus alnobetula (Ehrh.) K. Koch based on Betula alnobetula Ehrh. (1783) is the correct name for green alders. In light of the increasing use and recognition of the name Alnus alnobetula (Ehrh.) K. Koch in the literature. I herein propose new nomenclatural combinations to account for the Japanese and Chinese subspecies respectively: Alnus alnobetula subsp. maximowiczii (Callier ex C.K. Schneid.) J. Chery and Alnus alnobetula subsp. mandschurica (Callier ex C.K. Schneid.) J. Chery. Recent phylogenetic analyses place these two taxa in the green alder species complex, suggesting that they should be treated as infraspecific taxa under the polymorphic Alnus alnobetula. Keywords Green alders, Alnus viridis, Alnus alnobetula, Betulaceae Introduction Characteristic to the genus, Alnus alnobetula (Ehrh.) K. Koch is an anemophilous shrub with carpellate catkins that develop into woody strobili.
    [Show full text]
  • Hrotko1- Gotova Lekt. I
    UDC : 634.235:631.541.1 original scientific paper Acta Agriculturae Serbica, Vol. XIII, 25 (2008) 41-45 Evaluation of Native Hybrids of Prunus fruticosa Pall. as Cherry Interstocks K. Hrotkó, L.Magyar, M. Gyeviki Corvinus University of Budapest, Department of Fruit Science, Hungary Abstract : Searching for growth reducing cherry rootstocks, researchers have produced and tested numerous hybrids of Prunus fruticosa Pall . Some of them have proved to be promising as dwarfing rootstocks in cherry growing. The native flora of Hungary is rich in native hybrids of Prunus fruticosa Pall. identified and described under different names, but this rich genetic diversity has never been evaluated and used as cherry rootstocks. A total of 25 native hybrids were identified in different locations of Hungary, clonally propagated and planted in the repository of our research station. Based on their phenotype characteristics they were identified as Prunus x mohácsyana Kárp., P. eminens , Prunus x jávorkae Kárp. (supposedly P. fruticosa x P. mahaleb ) and Prunus fruticosa f. aucta Borb. Using the clones of the above mentioned hybrids as interstems, cherry trees of cultivar Sunburst were raised for field testing and planted into an orchard trial in spring 2000. The root of the trees was Prunus mahaleb . As control, Sunburst trees with Gisela 5 interstems were also planted. Growth of trees (trunk girth, canopy size), yield and fruit size were measured every year. Health status and incompatibility symptoms on trees and survival rate were also evaluated. Based on their growth, productivity and compatibility characteristics, three clones of P. eminens (3H, FV1 and KV2) and four clones of P.
    [Show full text]
  • Exploring Patterns of Variation Within the Central-European Tephroseris Longifolia Agg.: Karyological and Morphological Study
    Preslia 87: 163–194, 2015 163 Exploring patterns of variation within the central-European Tephroseris longifolia agg.: karyological and morphological study Karyologická a morfologická variabilita v rámci Tephroseris longifolia agg. Katarína O l š a v s k á1, Barbora Šingliarová1, Judita K o c h j a r o v á1,3, Zuzana Labdíková2,IvetaŠkodová1, Katarína H e g e d ü š o v á1 &MonikaJanišová1 1Institute of Botany, Slovak Academy of Sciences, Dúbravská cesta 9, SK-84523 Bratislava, Slovakia, e-mail: [email protected]; 2Faculty of Natural Sciences, University of Matej Bel, Tajovského 40, SK-97401 Banská Bystrica, Slovakia; 3Comenius University, Bratislava, Botanical Garden – detached unit, SK-03815 Blatnica, Slovakia Olšavská K., Šingliarová B., Kochjarová J., LabdíkováZ.,ŠkodováI.,HegedüšováK.&JanišováM. (2015): Exploring patterns of variation within the central-European Tephroseris longifolia agg.: karyological and morphological study. – Preslia 87: 163–194. Tephroseris longifolia agg. is an intricate complex of perennial outcrossing herbaceous plants. Recently, five subspecies with rather separate distributions and different geographic patterns were assigned to the aggregate: T. longifolia subsp. longifolia, subsp. pseudocrispa and subsp. gaudinii predominate in the Eastern Alps; the distribution of subsp. brachychaeta is confined to the northern and central Apennines and subsp. moravica is endemic in the Western Carpathians. Carpathian taxon T. l. subsp. moravica is known only from nine localities in Slovakia and the Czech Republic and is treated as an endangered taxon of European importance (according to Natura 2000 network). As the taxonomy of this aggregate is not comprehensively elaborated the aim of this study was to detect variability within the Tephroseris longifolia agg.
    [Show full text]
  • SHRUBS Almond Russian ‘Regal’ (Prunus Tenella ‘Regal’ ) NRCS Selection
    TREE DESCRIPTIONS Big Sioux Nursery, Inc. 16613 Sioux Conifer Road Watertown, SD 57201 1-605-886-6806 1-800-968-6806 E-Mail: [email protected] SHRUBS Almond Russian ‘Regal’ (Prunus tenella ‘Regal’ ) NRCS selection. Introduced from Europe and Asia. Suckers to form small colony. Produces showy pink or white flowers and a hairy inedible fruit. Can tolerate heavy clay and gumbo soils. Doesn’t tolerate waterlogged soil. (Size: 6/32, 12-20”) Aronia 'McKenzie' (Aronia melanocarpa) NRCS Selection. Attractive white flowers, glossy foliage, and black berries. Edible fruit attracts birds. Excellent fall color. (Size 6/32”, 12-20”) Buffaloberry (Shepherdia argentea Native. Suckers to form colony. High pH and drought tolerant. Attractive silver leaves. Red fruit can be used for jelly. Good for wildlife. (Size: 6/32”, 12-20”) Caragana (Caragana arborescens) Introduced from Siberia and Manchuria. Sometimes called pea shrub. Produces yellow flowers in spring. Non-edible seedpods. Fine-leafed. High pH and drought tolerant. Extremely hardy and long lived. (Size: 6/32”, 12-20”) Cherry, Mongolian (Prunus fruticosa) Introduced from Eastern Europe, Asia, Siberia, and Mongolia. Suckers slowly to form a colony. Glossy leaves. Showy white flowers and tart red fruit. Excellent for jelly. (Size: 5/32”, 12-20”) Cherry, Nanking (Prunus tomentosa) Introduced from China and Japan. Showy flowers and sweet red fruit. Good for jelly. Plants may be renewed by cutting to ground. Good for wildlife. (Size: 5/32”, 12-20”) Cherry, Sand (Prunus besseyi) Native. Glossy silver-green leaves. Suckers slightly to produce a low thicket. White flowers in spring and purple fruit in summer.
    [Show full text]
  • Draft Plant Propagation Protocol
    Plant Propagation Protocol for [Alnus viridis] ESRM 412 – Native Plant Production TAXONOMY Plant Family Scientific Name Alnus viridis Common Name Green alder Species Scientific Name Scientific Name Family: Betulaceae Genus: Alnus Mill. – alder Alnus viridis (Chaix) DC. – green alder Varieties Sub-species Alnus viridis subsp. crispa Alnus viridis subsp. fruticosa Alnus viridis subsp. sinuata Alnus viridis subsp. suaveolens Alnus viridis subsp. viridis Cultivar Shrub, tree. Common Synonym(s) Alnus alnobetula Betula alnobetula Common Name(s) Green alder Species Code ALVI5 GENERAL INFORMATION Geographical range It ranges from sohern alaska south to norther calfornia and into northern Idaho and Montana. (2) Ecological distribution Green alder is widely distributed throughout interior, central, and northern Alaska across the Yukon Territory and interior Canada to Labrador, Newfoundland, and Greenland. It extends south through New England and the Great Lakes States, and into the Pacific Northwest. Disjunct populations are documented in south-central Pennsylvania and west- central North Carolina (1) Climate and elevation range Grows from sea level up to 1200m (2) Local habitat and abundance Most common native habitats are high mountains swamps, and bottom lands along streams. Plant strategy type / successional A. viridis is a light-demanding, fast-growing shrub that stage grows well on poorer soils. In many areas, it is a highly characteristic colonist of avalanche chutes in mountains, where potentially competing larger trees are killed by regular avalanche damage. Plant characteristics It is a large shrub or small tree 3–12 m tall with smooth grey bark even in old age. The leaves are shiny green with light green undersurfaces, ovoid, 3–8 cm long and 2–6 cm broad.
    [Show full text]
  • Beechwood Gardens Mongolian Cherry
    Mongolian Cherry* Prunus fruticosa Height: 3 feet Spread: 3 feet Sunlight: Hardiness Zone: 2a Other Names: European Dwarf Cherry Description: A very hardy small shrub grown for its showy white flowers in spring followed by tart red fruit in summer, good for cooking and jam; upright and bushy habit, suckers profusely to form colonies, use where this trait is desirable Mongolian Cherry in fall Photo courtesy of NetPS Plant Ornamental Features Finder Mongolian Cherry is clothed in stunning fragrant white flowers along the branches in mid spring before the leaves. It has dark green foliage throughout the season. The glossy pointy leaves turn an outstanding yellow in the fall. The fruits are showy dark red drupes displayed in mid summer. This plant is primarily grown as an ornamental, but it's also valued for its edible qualities. The small round tart fruit is most often used in the following ways: - Cooking - Preserves Landscape Attributes Mongolian Cherry fruit Photo courtesy of NetPS Plant Finder Mongolian Cherry is a multi-stemmed deciduous shrub with a more or less rounded form. 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. 361 N. Hunter Highway Drums, PA 18222 (570) 788-4181 www.beechwood-gardens.com This shrub will require occasional maintenance and upkeep, and is best pruned in late winter once the threat of extreme cold has passed. It is a good choice for attracting birds to your yard. Gardeners should be aware of the following characteristic(s) that may warrant special consideration; - Suckering Mongolian Cherry is recommended for the following landscape applications; - Mass Planting - General Garden Use - Naturalizing And Woodland Gardens - Orchard/Edible Landscaping Planting & Growing Mongolian Cherry will grow to be about 3 feet tall at maturity, with a spread of 3 feet.
    [Show full text]
  • Native Tree Families, Including Large and Small Trees, 1/1/08 in the Southern Blue Ridge Region (Compiled by Rob Messick Using Three Sources Listed Below.)
    Native Tree Families, Including Large and Small Trees, 1/1/08 in the Southern Blue Ridge Region (Compiled by Rob Messick using three sources listed below.) • Total number of tree families listed in the southern Blue Ridge region = 33. • Total number of native large and small tree species listed = 113. (Only 84 according to J. B. & D. L..) There are 94 tree species in more frequently encountered families. There are 19 tree species in less frequently encountered families. • There is 93 % compatibility between Ashe & Ayers (1902), Little (1980), and Swanson (1994). (W. W. Ashe lists 105 tree species in the region in 1902. These are fully compatible with current listings.) ▸means more frequently encountered species. ?? = means a tree species that possibly occurs in the region, though its presence is not clear. More frequently encountered tree families (21): Pine Family Cashew Family Walnut Family Holly Family Birch Family Maple Family Beech Family Horse-chestnut (Buckeye) Family Magnolia Family Linden (Basswood) Family Laurel Family Tupelo-gum Family Witch-hazel Family Dogwood Family Plane-tree (Sycamore) Family Heath Family Rose Family Ebony Family Legume Family Storax (Snowbell) Family Olive Family Less frequently encountered tree families (12): Cypress Family Bladdernut Family Willow Family Buckthorn Family Elm Family Tea Family Mulberry Family Ginseng Family Custard-apple (Annona) Family Sweetleaf Family Rue Family Honeysuckle Family ______________________________________________________________________________ • More Frequently Encountered Tree Families: Pine Family (10): ▸ Fraser fir - Abies fraseri (a.k.a. Balsam) ▸ red spruce - Picea rubens ▸ shortleaf pine - Pinus echinata ▸ table mountain pine - Pinus pungens ▸ pitch pine - Pinus rigida ▸ white pine - Pinus strobus ▸ Virginia pine - Pinus virginiana loblolly pine - Pinus taeda ▸ eastern hemlock - Tsuga canadensis (a.k.a.
    [Show full text]
  • Seed Stratification Treatments for Two Hardy Cherry Species
    Tree Planter's Notes, Vol. 37, No. 3 (1986) Summer 1986/35 Seed Stratification Treatments for Two Hardy Cherry Species Greg Morgenson Assistant nurseryman, Lincoln-Oakes Nurseries, Bismark, ND The seed-propagated selection Information regarding seed Seed of Mongolian cherry (Prunus 'Scarlet' Mongolian cherry (figs. 1 propagation of these two species is fruticosa Pallas) germinated best after and 2) has recently been released limited. Initial late fall nursery seedings 30 days of warm plus 90 days of cold by the USDA Soil Conservation resulted in minimal germination the stratification. Amur chokecherry Service for conservation purposes in following spring but in satisfactory (Prunus maackii Rupr.) was best after the Northern Plains (4). germination the second spring after 30 days of warm plus 60 days of cold Prunus maackii is placed in the planting. stratification. Longer stratification subgenus Padus. It ranges from Seed of Prunus species require a periods resulted in germination during Manchuria to Korea and is rated as period of after-ripening to aid in storage. Tree Planters' Notes zone II in hardiness (3). It is a overcoming embryo dormancy (2). 37(3):3538; 1986. nonsuckering tree that grows to 15 Several species require a warm meters in height. Its leaves are dull stratification period followed by cold green. The dark purple fruits are borne stratification. It was believed that P. in racemes and are utilized by wildlife. fruticosa and P. maackii might benefit The genus Prunus contains many Amur chokecherry is often planted as from this. Researchers at the Morden native and introduced species that are an ornamental because of its Manitoba Experimental Farm found that hardy in the Northern Plains and are copper-colored, flaking bark, but it germination of P.
    [Show full text]
  • Université De Montréal Inuit Ethnobotany in the North American
    Université de Montréal Inuit Ethnobotany in the North American Subarctic and Arctic: Celebrating a Rich History and Expanding Research into New Areas Using Biocultural Diversity par Christian H. Norton Département de sciences biologiques Faculté des arts et des sciences Mémoire présenté à la Faculté des études supérieures en vue de l’obtention du grade de maîtrise en sciences biologiques Novembre 2018 © Christian H. Norton 2018 2 Résumé Historiquement, l'utilisation des plantes par les Inuits était considérée comme minimale. Notre compréhension de l'utilisation des plantes par les Inuits a commencé par suite de la prise en compte de concepts tels que la diversité bioculturelle et les espèces clés, et ces nouvelles idées ont commencé à dissiper les mythes sur le manque d’importance des plantes dans la culture inuite. Les Inuits peuvent être regroupés en quatre régions en fonction de la langue: l'Alaska, l'Arctique ouest canadien, l'Arctique et la région subarctique est canadienne et le Groenland. Le chapitre 1 passera en revue la littérature sur l'utilisation des plantes inuites de l'Alaska au Groenland. Au total, 311 taxons ont été mentionnés dans les quatre régions, ce qui correspond à 73 familles. Les niveaux de diversité étaient similaires dans les quatre régions. Seuls 25 taxons et 16 familles étaient communs à toutes les régions, mais 50%-75% des taxons et 75%-90% familles étaient signalés dans au moins deux régions, et les régions voisines ont généralement un chevauchement plus élevé que les régions plus éloignées. De la même manière, les Inuits des quatre régions ont indiqué comestible, médecine, incendie et design comme principales catégories d'utilisation, ainsi qu'une différenciation commune claire en ce qui concerne les taxons utilisés à des fins spécifiques.
    [Show full text]
  • Pollen Morphology of Polish Species of the Genus Rosa-I. Rosa Pendulina
    2006, vol. 55, 65–73 Dorota Wrońska-Pilarek, Jarosław Lira Pollen morphology of Polish species of the genus Rosa – I. Rosa pendulina Received: 03 April 2006, Accepted: 10 May 2006 Abstract: The morphology and variability of pollen of Rosa pendulina L. were studied. The material came from 10 native localities of this species. 300 pollen grains were examined. It was established that the diagnostic features of pollen grains of R. pendulina L. were: an elongated, narrow operculum, a poorly developed exine sculpture, long ectocolpi (a low value of the apocolpium index), and the predominance of grains elongated in shape. The results obtained usually correspond to data supplied by other palynologists. A statistical analysis of 10 quantitative grain characteristics showed their variability to be rather low. The highest variability was found to occur in two traits connected with d (the distance between the apices of two ectocolpi). Statistical studies revealed dependences among the grains from the 10 analysed localities Additional key words: alpine rose, LM, SEM, variability, multivariate analysis Address: D. Wrońska-Pilarek, August Cieszkowski Agricultural University, Department of Forest Botany, Wojska Polskiego 71 d, PL 60-625 Poznań, Poland, e-mail: [email protected] J. Lira, August Cieszkowski Agricultural University, Department of Food and Agricultural Economics, Wojska Polskiego 28, PL 60-637 Poznań, Poland Introduction cause data on the structure of pollen grains of roses are incomplete. Pollen grains of taxa from the family Rosaceae L. Pollen grains of Rosa pendulina have been studied have a similar morphological structure. Their most and described extremely rarely, using light micros- important features are their membership of the trizo- copy (Teppner 1965; Stachurska et al.
    [Show full text]
  • Generic Limits of Pyrinae: Insights from Nuclear Ribosomal DNA Sequences
    Botanical Studies (2012) 53: 151-164. SYSTEMATICS Generic limits of Pyrinae: Insights from nuclear ribosomal DNA sequences Qing-Yan LI1, Wei GUO1, Wen-Bo LIAO1,*, James A. MACKLIN2, and Jian-Hua LI3,* 1Sun Yat-sen University, School of Life Sciences, Guangdong Key Laboratory of Plant Resources, Guangzhou, Guangdong, 510275, P.R. China 2Harvard University Herbaria, Organismal and Evolutionary Biology, 22 Divinity Avenue, Cambridge, Massachusetts, 02138, USA 3Biology Department, Hope College, MI 49423, USA (Received August 23, 2010; Accepted October 6, 2011) ABSTRACT. The subtribe Pyrinae, formerly the Maloideae, is a monophyletic group of about 1,000 species that includes well known fruit crops such as apple (Malus), pear (Pyrus), quince (Cydonia), loquat (Eriobotrya), chokeberry (Aronia), and serviceberry (Amelanchier). Generic limits have been fluid in Pyrinae, especially in Malus, Sorbus and Photinia. This study evaluated the generic limits of 180 samples of multiple species or accessions from each of the traditional genera using sequences of the nrDNA ITS region. The ITS data recog- nized 24 genera, including Amelanchier, Aria (including Micromeles), Aronia, Chaenomeles, Chamaemespilus, Chamaemeles, Cormus, Cotoneaster, Crataegus, Cydonia, Dichotomanthes, Eriobotrya, Hesperomeles, Mala- comeles, Malus (including Chloromeles, Docynia, Docyniopsis, and Eriolobus), Mespilus, Osteomeles, Pera- phyllum, Pourthiaea, Pseudocydonia, Pyrus, Rhaphiolepis, Sorbus, and Torminalis. However, both Photinia and Pyracantha are polyphyletic. Photinia is separated into different clades, one of which contains species of Heteromeles and Stranvaesia. Asian species of Pyracantha do not form a clade with P. coccinea of southern Europe and Iran. Our results support the close relationship of Amelanchier, Malacomeles, and Peraphyllum, and of Crataegus and Mespilus, and for the first time recognize the sister relationship of the South American genus Hesperomeles with the Crataegus-Mespilus clade.
    [Show full text]