Loblolly Pine Pinus Taeda L
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Hwd”Rni -I I Southern Rest SO-296 Experimen?” Station July, 1963
c=.. United States I &=*$ Departmenlt of ‘$!j’!&’ Argriculture Forest Service hWD”rnI -I I Southern rest SO-296 Experimen?” Station July, 1963 Lightning Strike Simulation for Studying Southern Pine Bark and Engraver Beetle Attacks Mitchel C. Miller SUMMARY Endemic populations of the southern pine beetle is probably conservative; actual values could be (Dendroctonus frontalis Zimm.) and Ips spp. at- considerably higher. tacked loblolly pilnes (Pinus taeda L.) on which light- Lightning struck trees may attract SPB with a re- ning strikes were simulated with detonating cord lease of volatile oleoresin fractions from the shower in the field. Southern pine beetles were reared in of finely divided bark and needle particles (Taylor successive generations in these trees from fall 1981 1973, Lorio and Yandle 1978); struck trees offer a through spring 1982; only Ips spp. attacked treated favorable attack and brood development site for trees through December 1982. Lightning strike SPB and Ips spp. as a result of reduced oleoresin simulation provides an alternative means of studying exudation pressure, reduced oleoresin flow, re- bark beetle attack and opens the way for com- duced relative water content and increased reduc- parisons with nat;ural lightning strikes. ing-sugar content of inner bark (Hodges and Pickard Keywords: Lightning strike simulation, southern 1971). Anderson and Anderson (1968) associated pine beetle, Ips, Dendroctonus frontalis. successful attack by three Ips species on a light- ning struck loblolly pine with reduced oleoresin -
Overcoming Dormancy in Loblolly Pine (Pinus Taeda L.)
Reprinted from: Edwards, D.G.W., compiler and editor. 1993. "Dormancy and barriers to germination." Proc. Internal. Sympos. IUFRO Project Group P2.04-00 (Seed Problems). Victoria, British Columbia Canada ' April 23-26, 1991. Forestry Canada, Pacific Forestry Centre, Victoria, B.C. Overcoming dormancy in loblolly pine (Pinus taeda L.) F.T. BONNER AND C.A. HARRINGTON u.s. Department of Agriculture, Forest Service Southern Forest Experiment Station, Starkville, MS 39759, U.S.A. and Pacific Northwest Research Station, Olympia, WA 98502, U.S.A. Abstract Dormancy patterns in loblolly pine (Pinus taeda L.) were examined by comparing various parameters of germination rate. Both linear and polynomial models showed that mean germination time (MGT) was the most sensitive to chilling period. MGT was then used in a test of a new chilling technique that employed 24-h warm interruptions of chilling. This procedure produced faster rates of germination (lower MGT) in one group of 9 lots, but a second test with 15 lots yielded negative responses to any type of stratification. Resume Chez Ie pin a encens (Pinus taeda L.), les caracteristiques de la dormance ont ete examinees par comparaison de differents parametres du taux de germination. Des modeles lineaires comme polynomiaux ont montre que Ie temps moyen de germination etait Ie plus sensible a la periode d'entreposage en chambre froide. Cette duree moyenne a ensuite ete mise a profit dans l'essai d'une nouvelle technique d'entreposage en chambre froide qui comporte des interruptions de 24 h de rechauffement. Cette technique a accelere les taux de germination (temps moyen de germination raccourci) dans un groupe de 9 lots, mais lors d'un second essai sur 15 lots, a conduit a des resultats negatifs, peu importe Ie type de stratification. -
Introgression Between Pinus Taeda L. and Pinus Echinata Mill
Introgression between Pinus taeda L. and Pinus echinata Mill. Jiwang Chen 1, C. G. Tauer l , Guihua Bai1, and Yinghua Huang1 Key words: cpDNA; introgression; microsatellite; nuclear ribosomal DNA; loblolly pine; shortleaf pine INTRODUCTION Loblolly pine (Pinus taeda L.) and shortleaf pine (Pinus echinata Mill.) have widely overlapping geographic ranges. Hybridization between the two species has interested tree breeders for a long time. Morphologically, the two pine species are different. The needles of loblolly pine are 6 to 9 inches long, usually with three yellow-green needles per fascicle; but shortleaf pine needles are 3 to 5 inches long, with two or three dark yellow- green slender and flexible needles per fascicle. Loblolly pine also has larger cones than shortleaf, as well as other differences, however, these characters offer limited help when the genotypes of the parents and their probable hybrids are compounded by environmental factors The limitations of morphological characters resulted in the identification of the allozyme marker IDH (isocitrate dehydrogenase) to identify hybrids (Huneycutt and Askew, 1989). The high frequency of IDH variation seen in natural shortleaf pine populations outside the natural range of loblolly pine (Rajiv et al., 1997) suggests either profuse hybridization between the two species or that IDH is an unreliable marker. These data required us to look for new markers to confirm the identity of putative hybrids. A more extensive study (relative to the study of Rajiv et al., 1997), sampling a larger portion of shortleaf-loblolly pine sympatric population, was conducted to further explore the nature and extent of these hybrids in the native populations. -
Tfsbbstudy.Pdf
Introduction Results Pine bark beetles, including the mountain pine beetle (MPB), Table 1. Effects of abamectin (Aba) injection treatments on the success of Ips engraver beetle adult Trial 1: Evaluation of bolts collected from treated and untreated Dendroctonus ponderosae Hopkins, and southern pine beetle (SPB), D. attack, brood development, and success of cerambycid larvae in loblolly pine logs in Texas: 2008 - loblolly pine trees in 2008 - 2011 indicated that a similar number frontalis Zimmermann, are some of the more important forest pests in 2011. of Ips engraver beetles attacked the bolts regardless of treatment the United States (Billings et al. 2004) with local and regional outbreaks (Table 1). However, the success of the Ips in constructing galleries causing severe economic losses on a nearly annual basis. Other species (> 2.5 cm) or producing brood was significantly less for both of pine bark beetles, including the secondary pests Ips avulsus (Eichoff), injection treatments, regardless of season, compared to the I. grandicollis (Eichoff), and I. calligraphus (Germar), also are known to checks (Fig. 3). Similarly, the number of cerambycid egg niches cause significant tree mortality particularly during severe drought periods was similar for all treatments, but there were significantly less in the southeastern U.S (Wilkinson & Foltz 1982). The current abundance phloem consumed by larvae in the injected logs. of susceptible trees and forests underlines the need to develop new methods to protect individual trees from bark beetle attacks. Trial 2: Nearly all baited trees were heavily attacked by MPB within 3 weeks. A final assessment for the 2010 season was Protection of individual trees with conducted in September 2011 and showed heavy mortality (60%, insecticides has historically 18 of 30) of untreated lodgepole pine trees (Fig. -
Pinus Serotina (Pond Pine) Is a Tree of the Southeastern Coastal Plain of United States
PinusPinus serotinaserotina pondpond pinepine by Dr. Kim D. Coder, Professor of Tree Biology & Health Care Warnell School of Forestry & Natural Resources Pinus serotina (pond pine) is a tree of the Southeastern Coastal Plain of United States. It was first described as a species in 1803. Historically this tree has been taxonomically associated with pitch pine Pinus rigida. Other scientific names for this tree have been Pinus rigida var. serotina (1868) and Pinus rigida subs. serotina (1939). The scientific name means a “pine with late opening cones.” Other common names include swamp pine, marsh pine, bay pine, flatwoods pine, and pocosin pine. Pinus serotina grows along the Coastal Plain from Southern New Jersey into central Florida and central Alabama. In Georgia, pond pine grows below the fall line. See Georgia range map figure. Pinus serotina grows in bogs, moving water swamps, flatwoods, savannahs, and low scrub areas including poorly drained wetland sites with widely fluctuating water tables. Unlike many other pines, pond pine tolerates and reproduces in areas with high organic matter contents. Site drainage shifts species regen- eration toward loblolly pine. Pond pine is fire tolerant and sprouts after fire damage, but is disfigured by hot fires. Pinus serotina is a medium sized tree 40-65 feet tall (maximum of 90 feet). It grows to a diam- eter of 1-2.2 feet (maximum of 3 feet). Crown form is irregular, ragged, and thin, with many tufts of needles sprouting on stems. Crown shape is usually flat-topped with many stubby and gnarled branches among longer branches. Cones held for many years lead to the appearance of a cone-crowded crown. -
Proceedings 33Rd Southern Forest Tree Improvement Conference Using Tree Improvement to Grow New Products for a Changing World Ho
Proceedings 33rd Southern Forest Tree Improvement Conference Using Tree Improvement to Grow New Products for a Changing World Hosted by: Arkansas Forest Resources Center; University of Arkansas Division of Agriculture School of Forest and Natural Resources; University of Arkansas at Monticello Weyerhaeuser Inc. Hot Springs, AR June 8-11, 2015 Proceedings of the 33rd Southern Forest Tree Improvement Conference Edited by Joshua P. Adams Louisiana Tech University Ruston, LA 71270 The papers and abstracts in these proceedings were submitted by the authors as electronic files. Modifications were made in format to provide for consistency and to allow best possible placement of figures and tables. The authors are responsible for the technical content of their respective papers. Citation for the 33rd SFTIC Proceedings: Adams, J.P., editor. 2016. Proceedings of the 33rd Southern Forest Tree Improvement Conference; 8-11 June 2015; Hot Springs, Arkansas. http://www.sftic.org 113 p. Citation of papers in the 33rd SFTIC Proceedings: Authors’ Names. 2016. Name of paper. In: Proceedings of the 33rd Southern Forest Tree Improvement Conference; 8-11 June 2015 Hot Springs, Arkansas. http://www.sftic.org , pp. x-y. Links to electronic copies may be obtained at: http://www.sftic.org ii Foreword The 33rd Southern Forest Tree Improvement Conference (SFTIC), marking 64 years of biennial technical conferences, was held June 8-11, 2015 in Hot Springs, Arkansas. This marks the first time the conference has been in the state of Arkansas. Direction of the conference was coordinated by the Southern Forest Tree Improvement Committee and with co-hosts Arkansas Forest Resources Center; University of Arkansas Division of Agriculture School of Forest and Natural Resources; University of Arkansas at Monticello and Weyerhaeuser Inc. -
Species Comparison of the Physical Properties of Loblolly and Slash Pine Wood and Bark Thomas L
1495 ARTICLE Species comparison of the physical properties of loblolly and slash pine wood and bark Thomas L. Eberhardt, Joseph Dahlen, and Laurence Schimleck Abstract: Composition of the southern pine forest is now predominated by two species, loblolly pine (Pinus taeda L.) and slash pine (Pinus elliottii Engelm.), owing to fire suppression activities, natural regeneration on abandoned agricultural lands, and extensive planting. Comparison of the wood and bark physical properties of these pines is of interest in terms of the yields of usable biomass and, for the bark, its ecological functionality on a living tree. Trees from a species comparison study were used to generate wood and bark property data, on a whole-tree basis, and for stem disks collected at breast height. Models were constructed to explain the effect of relative height on wood and bark properties. When comparing the whole-tree data, slash pine wood (0.523 versus 0.498) and bark (0.368 versus 0.311) specific gravity values were higher, both offset by lower moisture contents; slash pine also produced a higher percentage of bark on a dry-mass basis (17% versus 12.5%). Unlike wood properties, bark properties showed significant between-species differences when determined at breast height alone, the exception being moisture content. In terms of yield, harvests of a green tonne of loblolly pine and slash pine would give approximately the same dry mass of wood, but slash pine provides more bark. Key words: bark thickness, moisture content, specific gravity, wood quality, yield. Résumé : La composition de la forêt de pins du sud est maintenant dominée par deux espèces, le pin a` encens (Pinus taeda L.) et le pin d’Elliott (Pinus elliottii Engelm.) a` cause des activités de suppression des feux, de la régénération naturelle sur les terres agricoles abandonnées et de la plantation intensive. -
Screening Pinus Taeda (Loblolly Pine) Families for Physical and Mechanical Properties Using Vibrational Spectroscopy
SCREENING PINUS TAEDA (LOBLOLLY PINE) FAMILIES FOR PHYSICAL AND MECHANICAL PROPERTIES USING VIBRATIONAL SPECTROSCOPY Gifty E. Acquah, Brian K. Via, Lori G. Eckhardt, and Oladiran O. Fasina1 Abstract—In a bid to control the loblolly pine decline complex, stakeholders are using the selection and deployment of genetically superior families that are disease tolerant. It is vital that we do not compromise other important properties while breeding for disease tolerance. In this preliminary study, near infrared spectroscopy was utilized in conjunction with data collected via conventional methods to develop partial least squares regression models that were used to rapidly predict the basic density, stiffness and ultimate strength of 14 genetically superior loblolly pine families that have been selectively bred to be disease tolerant. Calibration and independent validation data were from southern pines acquired from a commercial sawmill. Seven or eight latent variables were used in model development. The coefficients of determination of the predictive models were more promising for MOE (0.58) and MOR (0.42). INTRODUCTION product. Furthermore, it is essential that strength is not Pinus taeda (loblolly pine) is the most economically compromised else mortality due to reasons other than important tree species in the USA. With 30 million acres forest disease such as wind failure could occur. in plantations in the southern US alone, it provides 110,000 jobs and contributes approximately $30 billion MATERIALS to the economy of this region. However, over the Fourteen year old loblolly pine trees were harvested past 50 years, reduced growth, decline and eventual from two forest sites. Seven families were harvested mortality have been associated with loblolly pine trees from Yulee FL and seven from Waycross GA in February (Eckhardt and others 2010). -
Pinus Echinata, Shortleaf Pine
PinusPinus echinataechinata shortleafshortleaf pinepine by Dr. Kim D. Coder, Professor of Tree Biology & Health Care Warnell School of Forestry & Natural Resources, University of Georgia One of the most widespread pines of the Eastern United Sates is Pinus echinata, shortleaf pine. Shortleaf pine was identified and named in 1768. The scientific name means a “prickly pine cone tree.” Other common names for shortleaf pine include shortstraw pine, yellow pine, Southern yellow pine, shortleaf yellow pine, Arkansas soft pine, Arkansas pine, and old field pine. Among all the Southern yellow pines it has the greatest range and is most tolerant of a variety of sites. Shortleaf pine grows Southeast of a line between New York and Texas. It is widespread in Georgia except for coastal coun- ties. Note the Georgia range map figure. Pinus echinata is found growing in many mixtures with other pines and hardwoods. It tends to grow on medium to dry, well-drained, infertile sites, as compared with loblolly pine (Pinus taeda). It grows quickly in deep, well-drained areas of floodplains, but cannot tolerate high pH and high calcium concentrations. Compared with other Southern yellow pines, shortleaf is less demanding of soil oxygen content and essential element availability. It grows in Hardiness Zone 6a - 8b and Heat Zone 6-9. The lowest number of Hardiness Zone tends to delineate the Northern range limit and the largest Heat Zone number tends to define the South- ern edge of the range. This native Georgia pine grows in Coder Tree Grow Zone (CTGZ) A-D (a mul- tiple climatic attribute based map), and in the temperature and precipitation cluster based Coder Tree Planting Zone 1-6. -
Pinus Palustris Longleaf Pine
PinusPinus palustrispalustris longleaflongleaf pinepine by Dr. Kim D. Coder, Professor of Tree Biology & Health Care Warnell School of Forestry & Natural Resources, University of Georgia Longleaf pine (Pinus palustris) is one of our heritage trees because it represents a historic forest type. The cultural and romantic connections to longleaf pine and the forest ecosystem it dominates is seeped in traditions of the South. Longleaf pine was first identified as a species in 1768. Historic scientific names included Pinus australis (1810). Other common names for longleaf pine include long- leaf pine, long-leaved pine, longleaf yellow pine, Southern yellow pine, swamp pine, Georgia pine, marsh pine, yellow pine, Southern pine, longstraw pine, hill pine, pitch pine, hard pine, and heart pine. The scientific name means “pine of the marshes.” Longleaf pine grows on sandy, well drained upland soils, and in flatwoods along the Coastal Plain from Southeast Virginia to far Eastern Texas, dropping South into central Florida. It does grow up into the Piedmont and foot hill areas of Georgia and Alabama. Note the Georgia range map figure. Only tattered fragments of longleaf pine forests remain today even though it once covered large areas of the Southern Coastal Plain. It grows in Hardiness Zone 7b - 9b and Heat Zone 7 - 11. The lowest number of Hardiness Zone tends to delineate the Northern range limit and the largest Heat Zone number tends to define the South- ern edge of the range. This native Georgia pine grows in Coder Tree Grow Zone (CTGZ) B-E (a mul- tiple climatic attribute based map), and in temperature and precipitation cluster based Coder Tree Plant- ing Zone 4-7. -
PINUS L. Pine by Stanley L
PINAS Pinaceae-Pine family PINUS L. Pine by Stanley L. Krugman 1 and James L. Jenkinson 2 Growth habit, occurrence, and use.-The ge- Zealand; P. canariensis in North Africa and nus Pinus, one of the largest and most important South Africa; P. cari.bea in South Africa and of the coniferous genera, comprises about 95 Australia; P. halepereszs in South America; P. species and numerous varieties and hybrids. muricata in New Zealand and Australia; P. Pines are widely distributed, mostly in the sgluestris, P, strobus, P. contorta, and P. ni'gra Northern Hemisphere from sea level (Pi'nus in Europe; P. merkusii in Borneo and Java 128, contorta var. contorta) to timberline (P. albi- 152, 169, 266). cantl;i,s). They range from Alaska to Nicaragua, The pines are evergreen trees of various from Scandinavia to North Africa. and from heights,-often very tall but occasionally shrubby Siberia to Sumatra. Some species, such as P. (table 3). Some species, such as P.lnmbertionn, syluestris, are widely distributed-from Scot- P. monticola, P. ponderosa, antd. P. strobtr's, grow land to Siberia-while other species have re- to more than 200 feet tall, while others, as P. stricted natural ranges. Pinus canariensis, for cembroides and P. Ttumila, may not exceed 30 example, is found naturally only on the Canary feet at maturity. Islands, and P. torreyana numbers only a few Pines provide some of the most valuable tim- thousand individuals in two California localities ber and are also widely used to protect water- (table 1) (4e). sheds, to provide habitats for wildlife, and to Forty-one species of pines are native to the construct shelterbelts. -
Native Plants for Wildlife Habitat and Conservation Landscaping Chesapeake Bay Watershed Acknowledgments
U.S. Fish & Wildlife Service Native Plants for Wildlife Habitat and Conservation Landscaping Chesapeake Bay Watershed Acknowledgments Contributors: Printing was made possible through the generous funding from Adkins Arboretum; Baltimore County Department of Environmental Protection and Resource Management; Chesapeake Bay Trust; Irvine Natural Science Center; Maryland Native Plant Society; National Fish and Wildlife Foundation; The Nature Conservancy, Maryland-DC Chapter; U.S. Department of Agriculture, Natural Resource Conservation Service, Cape May Plant Materials Center; and U.S. Fish and Wildlife Service, Chesapeake Bay Field Office. Reviewers: species included in this guide were reviewed by the following authorities regarding native range, appropriateness for use in individual states, and availability in the nursery trade: Rodney Bartgis, The Nature Conservancy, West Virginia. Ashton Berdine, The Nature Conservancy, West Virginia. Chris Firestone, Bureau of Forestry, Pennsylvania Department of Conservation and Natural Resources. Chris Frye, State Botanist, Wildlife and Heritage Service, Maryland Department of Natural Resources. Mike Hollins, Sylva Native Nursery & Seed Co. William A. McAvoy, Delaware Natural Heritage Program, Delaware Department of Natural Resources and Environmental Control. Mary Pat Rowan, Landscape Architect, Maryland Native Plant Society. Rod Simmons, Maryland Native Plant Society. Alison Sterling, Wildlife Resources Section, West Virginia Department of Natural Resources. Troy Weldy, Associate Botanist, New York Natural Heritage Program, New York State Department of Environmental Conservation. Graphic Design and Layout: Laurie Hewitt, U.S. Fish and Wildlife Service, Chesapeake Bay Field Office. Special thanks to: Volunteer Carole Jelich; Christopher F. Miller, Regional Plant Materials Specialist, Natural Resource Conservation Service; and R. Harrison Weigand, Maryland Department of Natural Resources, Maryland Wildlife and Heritage Division for assistance throughout this project.