Acma-Alru/Pomu-Tegr
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Bromfield Garden Plant List - 2009
BROMFIELD GARDEN PLANT LIST - 2009 BOTANICAL NAME COMMON NAME Acer circinatum vine maple Achillea millefolium yarrow Achillea millefolium 'Judity' yarrow 'Judity' Achillea millefolium 'La Luna' yarrow 'La Luna' Achillea millefolium 'Paprika' yarrow 'Paprika' Achillea millefolium 'Salmon' yarrow 'Salmon' Achillea millefolium 'Sonoma Coast' yarrow 'Sonoma Coast' Aesculus californica California buckeye Aquilegia formosa western columbine Arctostaphylos 'Pacific Mist' manzanita 'Pacific Mist' Arctostaphylos hookeri 'Ken Taylor' manzanita 'Ken Taylor' Aristolochia californica California pipevine Armeria maritima sea pink Artemisia pycnocephala sandhill sage Asarum caudatum wild ginger Aster chilensis California aster Aster chilensis dwarf California aster Baccharis pilularis 'Twin Peaks' dwarf coyote brush 'Twin Peaks' Berberis aquifolium var repens creeping Oregon-grape Berberis nervosa dwarf Oregon-grape Blechnum spicant deer fern Calycanthus occidentalis spice bush Camissonia cheiranthifolia beach evening primrose Carex tumulicola Berkeley sedge Carpenteria californica bush anenome Ceanothus 'Concha' wild lilac 'Concha' Ceanothus 'Tilden Park' wild lilac 'Tilden Park' Cercis occidentalis western redbud Cercocarpus betuloides mountain mahogany Clematis lasiantha chaparral clematis Cornus sericea creek dogwood Corylus cornuta western hazelnut Dicentra formosa western bleeding heart Dichondra donneliana pony's foot Dryopteris arguta coastal wood fern Dudleya caespitosa sea lettuce Dudleya farinosa bluff lettuce Dudleya pulverulenta chalk liveforever -
Technical Note 37: Identification, Ecology, Use, and Culture of Sitka
TECHNICAL NOTES _____________________________________________________________________________________________ US DEPT. OF AGRICULTURE NATURAL RESOURCES CONSERVATION SERVICE Portland, OR April 2005 PLANT MATERIALS No. 37 Identification, Ecology, Use and Culture of Sitka Alder Dale C. Darris, Conservation Agronomist, Corvallis Plant Materials Center Introduction Sitka alder [Alnus viridis (Vill.) Lam. & DC. subsp. sinuata (Regel) A.& D. Löve] is a native deciduous shrub or small tree that grows to height of 20 ft, occasionally taller. Although a non-crop species, it has several characteristics useful for reclamation, forestry, and erosion control. The species is known for abundant leaf litter production, the fixation of atmospheric nitrogen in association with Frankia bacteria, and a strong fibrous root system. Where locally abundant, it naturally colonizes landslide chutes, areas of stream scour and deposition, soil slumps, and other drastic disturbances resulting in exposed minerals soils. These characteristics make Sitka alder particularly useful for streambank stabilization and soil building on impoverished sites. In addition, its low height and early slowdown in growth rate makes it potentially more desirable than red alder (Alnus rubra) to interplant with conifers such as Douglas fir (Pseudotsuga menzieii) and lodgepole pine (Pinus contorta) where soil fertility is moderate to low. However, high densities can hinder forest regeneration efforts. The species may also be useful as a fast growing shrub row in field windbreaks. Sitka alder is most abundant at mid to subalpine elevations. Low elevation seed sources (below 100 m) are uncommon but probably provide the best material for reclamation and erosion control projects on valley floors and terraces. Distribution and Identification Sitka alder (Alnus viridis subsp. sinuata) is a native deciduous shrub or small tree that grows to a height of 1-6 m (3-19 ft) in the mountains and 6-12 m (19-37ft) at low elevations. -
Bigleaf Maple Decline in Western Washington
Bigleaf Maple Decline in Western Washington Jacob J. Betzen A thesis submitted in partial fulfillment of the requirements for the degree of Master of Science University of Washington 2018 Committee: Patrick Tobin Gregory Ettl Brian Harvey Robert Harrison Program Authorized to Offer Degree: Environmental and Forest Sciences © Copyright 2018 Jacob Betzen University of Washington Abstract Bigleaf Maple Decline in Western Washington Jacob J. Betzen Chair of the Supervisory Committee: Professor Patrick Tobin School of Environmental and Forest Sciences Bigleaf maple (Acer macrophyllum Pursh) is a prominent component of the urban and suburban landscape in Western Washington, which lies at the heart of the native range of A. macrophyllum. Acer macrophyllum performs many important ecological, economic, and cultural functions, and its decline in the region could have cascading impacts. In 2011, increases in A. macrophyllum mortality were documented throughout the distributional range of the species. Symptoms of this decline included a systemic loss of vigor, loss of transpiration, and a reduction in photosynthetic potential, but did not display any signs or symptoms indicative of a specific causative agent. No pathogenic microbes, insects, or other biotic agents were initially implicated in causing or predisposing A. macrophyllum to decline. In my thesis research, I quantified the spatial extent and severity of A. macrophyllum decline in the urban, suburban, and wildland forests of western Washington, identified potential abiotic and biotic disturbance agents that are contributing to the decline, and conducted a dendrochronological analysis to ascertain the timing of the decline. I surveyed 22 sites that were previously reported as containing declining A. macrophyllum, and sampled 156 individual A. -
TREES HAVE HIGHER LONGITUDINAL GROWTH STRAINS in THEIR STEMS THAN in THEIR ROOTS in the Secondary Xylem of Trees, Each Wood Cell
a3q14 Int. 1. Plant Sci. 158(4):418-423. 1997. © 1997 by The University of Chicago. All rights reserved. 1058-5893/97/5804-0003$03.00 TREES HAVE HIGHER LONGITUDINAL GROWTH STRAINS IN THEIR STEMS THAN IN THEIR ROOTS BARBARA L. GARTNER Department of Forest Products, Oregon State University, Corvallis, Oregon 97 33 1-7402 Longitudinal growth strains develop in woody tissues during cell-wall formation. This study compares stems, which have a mechanical role and experience longitudinal stresses, and nonstructural roots, which have little mechanical role and experience few or no longitudinal stresses, to test the hypothesis that growth strains are produced in stems of straight trees as an adaptive feature for mechanical loads. I measured growth strains in one stem (at breast height) and one nonstructural root (beyond the zone of rapid taper and/or beyond a major change in root direction) for 13-15 individuals of each of four tree species, Pseudotsuga menziesii, Thuja heterophylla, Acer macrophyllum, and Alnus rubra. Forty-seven of the 54 individuals had higher strains in their stems than in their roots (4.3 ± 0.3 x 10- 4 and 1.5 ± 0.3 x 10-4, respectively). Growth strain was two to five times higher for stems than roots. The modulus of elasticity (MOE) in bending was also higher in stem tissues (from literature values) than in root tissue (from this study). Calculated growth stresses, the product of growth strain and MOE, averaged 6-11 times higher in stems than roots for the four species. The higher strain and stress in stems than roots indicate that the strains and stresses are adaptive features that are produced in response to, or in "anticipation," of mechanical loads. -
Nitrogen Transformations in Soils Beneath Red Alder and Conifers
From Biology of Alder ERTY OF: Proceedings of Northwest Scientific Association Annual Mee t4■::::),...;ADE HEAD EXPERIMENTAL FOREST April 14-15, 1967 Published 1968 AND SCENIC RESEARCH AREA OTIS, OREGON Nitrogen transformations in soils beneath red alder and conifers W. B. Bollen, Abstract Oregon State University Corvallis, Oregon Transformations of nitrogen in organic matter in the soil are essential to and plant nutrition because nitrogen in the form of proteins and other organic K. C. Lu compounds is not directly available. These compounds must undergo Forestry Sciences Laboratory microbial decomposition to liberate nitrogen as ammonium (NH -I-4) and Pacific Northwest Forest nitrate (NO3 ), which can then be absorbed by plant roots. and Range Experiment Station Nitrogen transformations, particularly nitrification, are rapid in soils under Corvallis, Oregon coastal Oregon stands of red alder (Alnus rubra Bong.); conifers — Douglas-fir (Pseudotsuga menziesii (Mirb.) Franco), western hemlock (Tsuga heterophylla Raf) Sarg.), and Sitka spruce (Picea sitchensis (Bong.) Carr.); and mixed stands of alder and conifers. Nitrification is especially rapid in the F layer beneath alder stands despite a very low pH. These findings are from a study of contributions to the nitrogen economy by red alder conducted at Cascade Head Experimental Forest near Otis, Oregon (Chen, 1965). 1 Procedures Ammonifying capacity of the different samples was compared by testing duplicate 50-g portions, ovendry basis, of each with peptone equivalent to 1,000 ppm nitrogen. These samples, and samples of untreated soil, were incubated for 35 days at 28 C. Moisture was adjusted to 50 percent of the water- holding capacity. At the close of incubation, each sample was analyzed for NH+4, NO-2, and NO-3 nitrogen and for pH. -
BIGLEAF MAPLE Evening Grosbeaks, Chipmunks, Mice, and a Variety of Birds
Plant Guide Wildlife: The seeds provide food for squirrels, BIGLEAF MAPLE evening grosbeaks, chipmunks, mice, and a variety of birds. Elk and deer browse the young twigs, leaves, Acer macrophyllum Pursh and saplings. Plant Symbol = ACMA3 Agroforestry: Bigleaf maple can be planted on sites Contributed By: USDA NRCS National Plant Data infected with laminated rot for site rehabilitation. It Center can also accelerate nutrient cycling, site productivity, revegetate disturbed riparian areas, and contribute to long-term sustainability. Status Please consult the PLANTS Web site and your State Department of Natural Resources for this plant’s current status, such as, state noxious status, and wetland indicator values. Description General: Maple Family (Aceraceae). Bigleaf maple is a native, long-lived medium to large sized deciduous tree that often grows to eighty feet tall. The leaves are simple, opposite, and very large between fifteen to thirty centimeters wide and almost as long (Farrar 1995). The flowers are yellow, Brother Alfred Brousseau © Saint Mary's College fragrant, and produced in noddling racemes @ CalPhotos appearing with the leaves in April or May. The fruit is paired, 2.5 - 4 centimeters long, and brown with Alternative Names stiff yellowish hair. The bark is smooth and gray- Oregon maple, broad leaf maple, big-leaf maple brown on young stems, becoming red-brown and deeply fissured, and broken into scales on the surface Uses (Preston 1989). Ethnobotanic: The inner bark was often dried and ground into a powder and then used as a thickener in Distribution: Acer macrophyllum is distributed soups or mixed with cereals when mixing bread. -
Alder Canopy Dieback and Damage in Western Oregon Riparian Ecosystems
Alder Canopy Dieback and Damage in Western Oregon Riparian Ecosystems Sims, L., Goheen, E., Kanaskie, A., & Hansen, E. (2015). Alder canopy dieback and damage in western Oregon riparian ecosystems. Northwest Science, 89(1), 34-46. doi:10.3955/046.089.0103 10.3955/046.089.0103 Northwest Scientific Association Version of Record http://cdss.library.oregonstate.edu/sa-termsofuse Laura Sims,1, 2 Department of Botany and Plant Pathology, Oregon State University, 1085 Cordley Hall, Corvallis, Oregon 97331 Ellen Goheen, USDA Forest Service, J. Herbert Stone Nursery, Central Point, Oregon 97502 Alan Kanaskie, Oregon Department of Forestry, 2600 State Street, Salem, Oregon 97310 and Everett Hansen, Department of Botany and Plant Pathology, 1085 Cordley Hall, Oregon State University, Corvallis, Oregon 97331 Alder Canopy Dieback and Damage in Western Oregon Riparian Ecosystems Abstract We gathered baseline data to assess alder tree damage in western Oregon riparian ecosystems. We sought to determine if Phytophthora-type cankers found in Europe or the pathogen Phytophthora alni subsp. alni, which represent a major threat to alder forests in the Pacific Northwest, were present in the study area. Damage was evaluated in 88 transects; information was recorded on damage type (pathogen, insect or wound) and damage location. We evaluated 1445 red alder (Alnus rubra), 682 white alder (Alnus rhombifolia) and 181 thinleaf alder (Alnus incana spp. tenuifolia) trees. We tested the correlation between canopy dieback and canker symptoms because canopy dieback is an important symptom of Phytophthora disease of alder in Europe. We calculated the odds that alder canopy dieback was associated with Phytophthora-type cankers or other biotic cankers. -
RED ALDER Northwest Extracted a Red Dye from the Inner Bark, Which Was Used to Dye Fishnets
Plant Guide and hair. The native Americans of the Pacific RED ALDER Northwest extracted a red dye from the inner bark, which was used to dye fishnets. Oregon tribes used Alnus rubra Bong. the innerbark to make a reddish-brown dye for basket Plant Symbol = ALRU2 decorations (Murphey 1959). Yellow dye made from red alder catkins was used to color quills. Contributed by: USDA NRCS National Plant Data Center A mixture of red alder sap and charcoal was used by the Cree and Woodland tribes for sealing seams in canoes and as a softener for bending boards for toboggans (Moerman 1998). Wood and fiber: Red alder wood is used in the production of wooden products such as food dishes, furniture, sashes, doors, millwork, cabinets, paneling and brush handles. It is also used in fiber-based products such as tissue and writing paper. In Washington and Oregon, it was largely used for smoking salmon. The Indians of Alaska used the hallowed trunks for canoes (Sargent 1933). Medicinal: The North American Indians used the bark to treat many complaints such a headaches, rheumatic pains, internal injuries, and diarrhea (Moerman 1998). The Salinan used an extract of the bark of alder trees to treat cholera, stomach cramps, and stomachaches (Heinsen 1972). The extract was made with 20 parts water to 1 part fresh or aged bark. The bark contains salicin, a chemical similar to aspirin (Uchytil 1989). Infusions made from the bark of red alders were taken to treat anemia, colds, congestion, and to © Tony Morosco relieve pain. Bark infusions were taken as a laxative @ CalFlora and to regulate menstruation. -
Brotherella Roellii (Renauld & Cardot) M
Brotherella roellii (Renauld & Cardot) M. Fleisch. Roll's golden log moss Sematophyllaceae status: State Threatened, USFS strategic rank: G3 / SH General Description: Shiny golden to yellowish green moss forming thin, small carpets. Stems lying flat, creeping, branching irregularly, 0.5-3 cm x 0.5-1 mm. Leaves 0.8-1.2 mm long, often turned to one side, ovate-lanceolate, tip pointed, concave. Costa lacking, or double and very short. Alar cells strongly inflated. Outer layer of stem cells (cortical cells) are inflated, colorless, transparent, and larger than the interior cells. There is often a row of enlarged cells extending across the leaf base. Reproductive Characteristics: Produces male and female sex organs on the same plant but in separate locations. Seta 0.6-1 cm long. Capsule erect to somewhat inclined, straight or slightly asymmetric. Urn 1-1.5 mm long. Operculum long and narrow, up to 1 mm long. Identification Tips: Hypnum circinale is a similar species that often grows in the same habitat. However, it is a larger moss, dull grayish to bluish green in color, with longer leaves (up to 2.2 mm) that are slightly to strongly curved nearly into a circle. It has only a few slightly inflated quadrate to rectangular, alar cells; its cortical cells are small and thick-walled. In contrast, B. roellii has strongly inflated alar cells, and large, thin-walled, inflated cortical cells. Range: Endemic to southwestern B.C. and WA. Habitat/Ecology: Forms small, glossy, green to golden yellow mats, usually on old logs and other rotten wood; also © Judy Harpel on the bases of red alder (Alnus rubra) and other hardwood trees. -
DICOTS Aceraceae Maple Family Anacardiaceae Sumac Family
FLOWERINGPLANTS Lamiaceae Mint family (ANGIOSPERMS) Brassicaceae Mustard family Prunella vulgaris - Self Heal Cardamine nutallii - Spring Beauty Satureja douglasii – Yerba Buena Rubiaceae Madder family DICOTS Galium aparine- Cleavers Boraginaceae Borage family Malvaceae Mallow family Galium trifidum – Small Bedstraw Aceraceae Maple family Cynoglossum grande – Houndstongue Sidalcea virgata – Rose Checker Mallow Acer macrophyllum – Big leaf Maple Oleaceae Olive family MONOCOTS Anacardiaceae Sumac family Fraxinus latifolia - Oregon Ash Toxicodendron diversilobum – Poison Oak Cyperaceae Sedge family Plantaginaceae Plantain family Carex densa Apiaceae Carrot family Plantago lanceolata – Plantain Anthriscus caucalis- Bur Chervil Iridaceae Iris family Daucus carota – Wild Carrot Portulacaceae Purslane family Iris tenax – Oregon Iris Ligusticum apiifolium – Parsley-leaved Claytonia siberica – Candy Flower Lovage Claytonia perforliata – Miner’s Lettuce Juncaceae Rush family Osmorhiza berteroi–Sweet Cicely Juncus tenuis – Slender Rush Sanicula graveolens – Sierra Sanicle Cynoglossum Photo by C.Gautier Ranunculaceae Buttercup family Delphinium menziesii – Larkspur Liliaceae Lily family Asteraceae Sunflower family Caryophyllaceae Pink family Ranunculus occidentalis – Western Buttercup Allium acuminatum – Hooker’s Onion Achillea millefolium – Yarrow Stellaria media- Chickweed Ranunculus uncinatus – Small-flowered Calochortus tolmiei – Tolmie’s Mariposa Lily Adendocaulon bicolor – Pathfinder Buttercup Camassia quamash - Camas Bellis perennis – English -
(Polypodiales) Plastomes Reveals Two Hypervariable Regions Maria D
Logacheva et al. BMC Plant Biology 2017, 17(Suppl 2):255 DOI 10.1186/s12870-017-1195-z RESEARCH Open Access Comparative analysis of inverted repeats of polypod fern (Polypodiales) plastomes reveals two hypervariable regions Maria D. Logacheva1, Anastasiya A. Krinitsina1, Maxim S. Belenikin1,2, Kamil Khafizov2,3, Evgenii A. Konorov1,4, Sergey V. Kuptsov1 and Anna S. Speranskaya1,3* From Belyaev Conference Novosibirsk, Russia. 07-10 August 2017 Abstract Background: Ferns are large and underexplored group of vascular plants (~ 11 thousands species). The genomic data available by now include low coverage nuclear genomes sequences and partial sequences of mitochondrial genomes for six species and several plastid genomes. Results: We characterized plastid genomes of three species of Dryopteris, which is one of the largest fern genera, using sequencing of chloroplast DNA enriched samples and performed comparative analysis with available plastomes of Polypodiales, the most species-rich group of ferns. We also sequenced the plastome of Adianthum hispidulum (Pteridaceae). Unexpectedly, we found high variability in the IR region, including duplication of rrn16 in D. blanfordii, complete loss of trnI-GAU in D. filix-mas, its pseudogenization due to the loss of an exon in D. blanfordii. Analysis of previously reported plastomes of Polypodiales demonstrated that Woodwardia unigemmata and Lepisorus clathratus have unusual insertions in the IR region. The sequence of these inserted regions has high similarity to several LSC fragments of ferns outside of Polypodiales and to spacer between tRNA-CGA and tRNA-TTT genes of mitochondrial genome of Asplenium nidus. We suggest that this reflects the ancient DNA transfer from mitochondrial to plastid genome occurred in a common ancestor of ferns. -
Stream & Wetland Enhancement Guide
Stream & Wetland Enhancement Guide Department of Community Development (541) 488-5305 www.ashland.or.us Stream & Wetland Enhancement Guide A healthy network of urban streams and wetlands protects water quality, reduces flood- ing impacts, provides fish and wildlife habitat, and enhances the beauty and livability of our community. You can help protect and enhance these important natural resources by learning the techniques outlined in this guide. These techniques will help you control erosion, man- age invasive plants, and cultivate a healthy, native landscape. This guide is arranged into sections to help you understand, design, plant and manage streamside vegetation. For more information about how you can protect your neighborhood streams and wet- lands, and find out about regulations pertaining to the alteration of riparian and wetland habitats contact the City of Ashland Department of Community Development at (541) 488-5305 or visit the City’s web page dedicated to Water Resources: www.ashland.or.us/waterresources Stream & Wetland Enhancement Guide Contents 1. Water Protection Zones Streams and Wetlands (pgs. 1-4) 2. Rogue Basin Native Plants (pgs. 5-6) 3. Noxious and Plants (pgs. 7-8) 4. Planting and Managing Streamside Vegetation (pgs. 9-11) 5. Planting Techniques (pg. 12) 6. Plant Protection (pg. 13) 7.Streamside Stabilization and Erosion Control (pgs. 14-16) 8. Plant Communities Riparian Woodland (pg. 17) Wetland (pg. 18) 9. Use of Herbicides (pgs. 19-20) 10. Additional Resources (pg. 21) 1. Water Resource Protection Zones - Streams A riparian area is the area of land adjacent to a stream. Healthy riparian areas reduce the chance of damaging floods, improve water quality and provide habitat and food for fish and wildlife.