Fire in Cypress Swamps in the Southeastern United States
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Ghosts of the Western Glades Just Northwest of Everglades National Park Lies Probably the Wildest, Least Disturbed Natural Area in All of Florida
Discovering the Ghosts of the Western Glades Just Northwest of Everglades National Park lies probably the wildest, least disturbed natural area in all of Florida. Referred to as the Western Everglades (or Western Glades), it includes Fakahatchee Strand State Preserve and Big Cypress National Preserve. Environmentalists that pushed for the creation of Everglades National Park originally wanted this area included in it. But politics and lack of funds prevented this. Several decades passed before Big Cypress National Preserve was born in 1974. Preserves have slightly less restrictive rules than national parks. So how is the Big Cypress Swamp distinct from the Everglades? Even though both habitats have many similarities (sawgrass prairies & tree islands, for instance), the Big Cypress Swamp is generally 1-2 feet higher in elevation. Also, it has a mainly southwesterly flow of water, dumping into the “ten thousand islands” area on Florida’s Gulf of Mexico coast and serving as an important watershed for the River of Grass to the south. Then, of course, there are the cypress trees. Cypress Trees Not surprisingly, of course, is the fact that the Big Cypress Swamp has about 1/3 of its area covered in cypress trees. Mostly they are the small “dwarf pond cypress” trees. (“Big” refers to the large mass of land not the size of the trees.) A few locations, however, still do boast the impressive towering “bald cypress” trees but most of those were logged out between the years 1913 - 1948. Ridge & Slough Topography Topography simply means the relief (or elevation variances) of any particular area of land. -
Cupressaceae Calocedrus Decurrens Incense Cedar
Cupressaceae Calocedrus decurrens incense cedar Sight ID characteristics • scale leaves lustrous, decurrent, much longer than wide • laterals nearly enclosing facials • seed cone with 3 pairs of scale/bract and one central 11 NOTES AND SKETCHES 12 Cupressaceae Chamaecyparis lawsoniana Port Orford cedar Sight ID characteristics • scale leaves with glaucous bloom • tips of laterals on older stems diverging from branch (not always too obvious) • prominent white “x” pattern on underside of branchlets • globose seed cones with 6-8 peltate cone scales – no boss on apophysis 13 NOTES AND SKETCHES 14 Cupressaceae Chamaecyparis thyoides Atlantic white cedar Sight ID characteristics • branchlets slender, irregularly arranged (not in flattened sprays). • scale leaves blue-green with white margins, glandular on back • laterals with pointed, spreading tips, facials closely appressed • bark fibrous, ash-gray • globose seed cones 1/4, 4-5 scales, apophysis armed with central boss, blue/purple and glaucous when young, maturing in fall to red-brown 15 NOTES AND SKETCHES 16 Cupressaceae Callitropsis nootkatensis Alaska yellow cedar Sight ID characteristics • branchlets very droopy • scale leaves more or less glabrous – little glaucescence • globose seed cones with 6-8 peltate cone scales – prominent boss on apophysis • tips of laterals tightly appressed to stem (mostly) – even on older foliage (not always the best character!) 15 NOTES AND SKETCHES 16 Cupressaceae Taxodium distichum bald cypress Sight ID characteristics • buttressed trunks and knees • leaves -
Limpkin Aramus Guarauna Taxa: Avian SE-GAP Spp Code: Blimp Order: Gruiformes ITIS Species Code: 176197 Family: Aramidae Natureserve Element Code: ABNMJ01010
Limpkin Aramus guarauna Taxa: Avian SE-GAP Spp Code: bLIMP Order: Gruiformes ITIS Species Code: 176197 Family: Aramidae NatureServe Element Code: ABNMJ01010 KNOWN RANGE: PREDICTED HABITAT: P:\Proj1\SEGap P:\Proj1\SEGap Range Map Link: http://www.basic.ncsu.edu/segap/datazip/maps/SE_Range_bLIMP.pdf Predicted Habitat Map Link: http://www.basic.ncsu.edu/segap/datazip/maps/SE_Dist_bLIMP.pdf GAP Online Tool Link: http://www.gapserve.ncsu.edu/segap/segap/index2.php?species=bLIMP Data Download: http://www.basic.ncsu.edu/segap/datazip/region/vert/bLIMP_se00.zip PROTECTION STATUS: Reported on March 14, 2011 Federal Status: --- State Status: FL (SSC) NS Global Rank: G5 NS State Rank: AL (SNA), FL (S3), GA (S1S2), IL (SNA), MD (SNA), MS (SNA), NC (SNA), TX (SNA), VA (SNA), NS (SNA) bLIMP Page 1 of 4 SUMMARY OF PREDICTED HABITAT BY MANAGMENT AND GAP PROTECTION STATUS: US FWS US Forest Service Tenn. Valley Author. US DOD/ACOE ha % ha % ha % ha % Status 1 34,779.2 < 1 120.6 < 1 0.0 0 0.0 0 Status 2 18,984.4 < 1 26,563.7 < 1 0.0 0 0.0 0 Status 3 0.0 0 154,688.7 2 0.0 0 31,698.2 < 1 Status 4 0.0 0 0.0 0 0.0 0 0.0 0 Total 53,763.7 < 1 181,373.0 3 0.0 0 31,698.2 < 1 US Dept. of Energy US Nat. Park Service NOAA Other Federal Lands ha % ha % ha % ha % Status 1 0.0 0 362,645.8 5 0.0 0 8,464.4 < 1 Status 2 0.0 0 3,173.0 < 1 12,062.5 < 1 77.1 < 1 Status 3 0.0 0 270,295.1 4 0.0 0 0.0 0 Status 4 0.0 0 0.0 0 0.0 0 0.0 0 Total 0.0 0 636,113.9 9 12,062.5 < 1 8,541.5 < 1 Native Am. -
Evaluating the Functional Response of Isolated Cypress Domes to Groundwater Alteration in West-Central Florida
Evaluating the functional response of isolated cypress domes to groundwater alteration in west-central Florida by Megan Kristine Bartholomew A thesis submitted to the Graduate Faculty of Auburn University in partial fulfillment of the requirements for the Degree of Master of Science Auburn, Alabama May 6, 2017 Copyright 2017 by Megan Bartholomew Approved by Christopher Anderson, Chair, Professor of Wetland Ecology Robert Boyd, Professor of Plant Ecology Jacob Berkowitz, Research Soil Scientist Abstract The hydrology of a wetland is the single most important determinant of its function and slight alterations can lead to significant changes in plant communities and biogeochemistry within the wetland. Therefore, understanding the influence of hydrology on vegetative and soil processes is pivotal to restoration efforts. This study investigated how hydrologic alteration and recovery influenced wetland vegetation and soil processes in Starkey Wilderness Park (SWP), a well-field in west-central Florida. Vegetation responses to groundwater alterations were observed using long term species and hydrologic data collected from SWP. The results from the vegetation study suggest that hydrologic recovery has restored vegetative functions and measures, such as species richness and hydrophytic assemblages, in a relatively short (5-7 year) period. However, differences in species composition and community variation persist in wetlands of various degrees of hydrologic alterations. A field study was also conducted to determine how hydrologic alterations continue to affect wetland decomposition rates and other soil processes. After eight years of hydrologic recovery, altered wetlands experienced faster decomposition than reference wetlands and rates seemed to be linked to differences in both inundation and percent soil organic matter. -
Plant Palette - Trees 50’-0”
50’-0” 40’-0” 30’-0” 20’-0” 10’-0” Zelkova Serrata “Greenvase” Metasequoia glyptostroboides Cladrastis kentukea Chamaecyparis obtusa ‘Gracilis’ Ulmus parvifolia “Emer I” Green Vase Zelkova Dawn Redwood American Yellowwood Slender Hinoki Falsecypress Athena Classic Elm • Vase shape with upright arching branches • Narrow, conical shape • Horizontally layered, spreading form • Narrow conical shape • Broadly rounded, pendulous branches • Green foliage • Medium green, deciduous conifer foliage • Dark green foliage • Evergreen, light green foliage • Medium green, toothed leaves • Orange Fall foliage • Rusty orange Fall foliage • Orange to red Fall foliage • Evergreen, no Fall foliage change • Yellowish fall foliage Plant Palette - Trees 50’-0” 40’-0” 30’-0” 20’-0” 10’-0” Quercus coccinea Acer freemanii Cercidiphyllum japonicum Taxodium distichum Thuja plicata Scarlet Oak Autumn Blaze Maple Katsura Tree Bald Cyprus Western Red Cedar • Pyramidal, horizontal branches • Upright, broad oval shape • Pyramidal shape • Pyramidal shape, develops large flares at base • Pyramidal, buttressed base with lower branches • Long glossy green leaves • Medium green fall foliage • Bluish-green, heart-shaped foliage • Leaves are needle-like, green • Leaves green and scale-like • Scarlet red Fall foliage • Brilliant orange-red, long lasting Fall foliage • Soft apricot Fall foliage • Rich brown Fall foliage • Sharp-pointed cone scales Plant Palette - Trees 50’-0” 40’-0” 30’-0” 20’-0” 10’-0” Thuja plicata “Fastigiata” Sequoia sempervirens Davidia involucrata Hogan -
The Taxonomic Position and the Scientific Name of the Big Tree Known As Sequoia Gigantea
The Taxonomic Position and the Scientific Name of the Big Tree known as Sequoia gigantea HAROLD ST. JOHN and ROBERT W. KRAUSS l FOR NEARLY A CENTURY it has been cus ing psychological document, but its major,ity tomary to classify the big tree as Sequoia gigan vote does not settle either the taxonomy or tea Dcne., placing it in the same genus with the nomenclature of the big tree. No more the only other living species, Sequoia semper does the fact that "the National Park Service, virens (Lamb.) End!., the redwood. Both the which has almost exclusive custodY of this taxonomic placement and the nomenclature tree, has formally adopted the name Sequoia are now at issue. Buchholz (1939: 536) pro gigantea for it" (Dayton, 1943: 210) settle posed that the big tree be considered a dis the question. tinct genus, and he renamed the tree Sequoia The first issue is the generic status of the dendron giganteum (Lind!.) Buchholz. This trees. Though the two species \differ con dassification was not kindly received. Later, spicuously in foliage and in cone structure, to obtain the consensus of the Calif.ornian these differences have long been generally botanists, Dayton (1943: 209-219) sent them considered ofspecific and notofgeneric value. a questionnaire, then reported on and sum Sequoiadendron, when described by Buchholz, marized their replies. Of the 29 answering, was carefully documented, and his tabular 24 preferred the name Sequoia gigantea. Many comparison contains an impressive total of of the passages quoted show that these were combined generic and specific characters for preferences based on old custom or sentiment, his monotypic genus. -
Supporting Information
Supporting Information Mao et al. 10.1073/pnas.1114319109 SI Text BEAST Analyses. In addition to a BEAST analysis that used uniform Selection of Fossil Taxa and Their Phylogenetic Positions. The in- prior distributions for all calibrations (run 1; 144-taxon dataset, tegration of fossil calibrations is the most critical step in molecular calibrations as in Table S4), we performed eight additional dating (1, 2). We only used the fossil taxa with ovulate cones that analyses to explore factors affecting estimates of divergence could be assigned unambiguously to the extant groups (Table S4). time (Fig. S3). The exact phylogenetic position of fossils used to calibrate the First, to test the effect of calibration point P, which is close to molecular clocks was determined using the total-evidence analy- the root node and is the only functional hard maximum constraint ses (following refs. 3−5). Cordaixylon iowensis was not included in in BEAST runs using uniform priors, we carried out three runs the analyses because its assignment to the crown Acrogymno- with calibrations A through O (Table S4), and calibration P set to spermae already is supported by previous cladistic analyses (also [306.2, 351.7] (run 2), [306.2, 336.5] (run 3), and [306.2, 321.4] using the total-evidence approach) (6). Two data matrices were (run 4). The age estimates obtained in runs 2, 3, and 4 largely compiled. Matrix A comprised Ginkgo biloba, 12 living repre- overlapped with those from run 1 (Fig. S3). Second, we carried out two runs with different subsets of sentatives from each conifer family, and three fossils taxa related fi to Pinaceae and Araucariaceae (16 taxa in total; Fig. -
Methods for Measuring Frost Tolerance of Conifers: a Systematic Map
Review Methods for Measuring Frost Tolerance of Conifers: A Systematic Map Anastasia-Ainhoa Atucha Zamkova *, Katherine A. Steele and Andrew R. Smith School of Natural Sciences, Bangor University, Bangor LL57 2UW, Gwynedd, UK; [email protected] (K.A.S.); [email protected] (A.R.S.) * Correspondence: [email protected] Abstract: Frost tolerance is the ability of plants to withstand freezing temperatures without unrecov- erable damage. Measuring frost tolerance involves various steps, each of which will vary depending on the objectives of the study. This systematic map takes an overall view of the literature that uses frost tolerance measuring techniques in gymnosperms, focusing mainly on conifers. Many different techniques have been used for testing, and there has been little change in methodology since 2000. The gold standard remains the field observation study, which, due to its cost, is frequently substituted by other techniques. Closed enclosure freezing tests (all non-field freezing tests) are done using various types of equipment for inducing artificial freezing. An examination of the literature indicates that several factors have to be controlled in order to measure frost tolerance in a manner similar to observation in a field study. Equipment that allows controlling the freezing rate, frost exposure time and thawing rate would obtain results closer to field studies. Other important factors in study design are the number of test temperatures used, the range of temperatures selected and the decrements between the temperatures, which should be selected based on expected frost tolerance of the tissue and species. Citation: Atucha Zamkova, A.-A.; Steele, K.A.; Smith, A.R. -
Common Name: Bald Cypress Scientific Name: Taxodium Distichum Order: Arecales Family: Cupressaceae Wetland Plant Status: Oblig
Common Name: Bald Cypress Scientific Name: Taxodium distichum Order: Arecales Family: Cupressaceae Wetland Plant Status: Obligatory Ecology & Description Bald cypress needs water to thrive. It can be found naturally on the banks of a water body or in the center of the water. When planted, it can survive more upland. The cypress tree grows very slowly and will die if submerged in water. It is a slow growing, long-lived deciduous conifer. The trees frequently get over 100 feet tall with a diameter of 6 feet. The trunk is normally tapered. The leaves are needle-like but appear flattened. The bark is very thin and fibrous with narrow furrows. The bald cypress produces cone fruit and cypress knees. Habitat Bald cypress trees are confined to wet soils were water is almost permanent. It is usually found on flat elevations. Distribution Bald cypress is widely distributed along the Atlantic Coast and Gulf Coast, but can be found inland along streams. Native/Invasive Status Bald cypress is native to lower 48 states of the United States. Wildlife Uses Squirrels and many different bird species use the seeds as food. Bald cypress domes also create watering holes for a variety of birds and mammals. Amphibians and reptiles will also use bald cypress domes as breeding grounds. Management & Control Techniques When regenerating cypress, canopy thinning is a must. Overhead thinning will allow for seedlings to grow. The seedling cannot be submerged in water. Seedlings cannot germinate in flooded areas. The seedling must be somewhat taller than the floodwaters for survival. Good seed production occurs about every three years and is dispersed better with flood waters. -
Propagation of Taxodium Mucronatum from Softwood Cuttings
Propogation of Taxosium mucronatum from Softwood Cuttings Item Type Article Authors St. Hilaire, Rolston Publisher University of Arizona (Tucson, AZ) Journal Desert Plants Rights Copyright © Arizona Board of Regents. The University of Arizona. Download date 25/09/2021 03:23:49 Link to Item http://hdl.handle.net/10150/555909 Taxodium St. Hilaire 29 Propagation of Taxodium softwood cuttings could be used to propagate Mexican bald cypress. mucronatum from Terminal softwood cuttings were collected on 16 October Softwood Cuttings 1998 and 1999. Cuttings were selected from the lower branches of an 11-year-old tree at New Mexico State University's Fabian Garcia Science Center in Las Cruces Rolston St. Hilaire1 (lat. 32° 16' 48" N; long. 106° 45' 18" W), from all branches Department of Agronomy and Horticulture, Box of a 2-year-old tree at an arboretum in Los Lunas, New Mexico (lat. 34° 48' 18" N; long. 106° 43' 42" W), and 30003, New Mexico State University, from all branches of a 2-year-old tree in the display Las Cruces, NM 88003 landscape of a nursery in Los Lunas. Plants of T. mucronatum grow rapidly. The 11-year-old tree was 12m Abstract tall (::::50 main branches), and the 2-year-old trees had Mexican bald cypress (Taxodium mucronatum Ten.) is reached 2 m (:::: 15 main branches). This facilitated the propagated from seed, but procedures have not been reported collection of at least 30 terminal cuttings per tree in each of for the propagation of this ornamental tree by stem cuttings. the two years. All trees were irrigated as necessary, but not This study evaluated the use of softwood cuttings to fertilized. -
Taxodium Distichum
University of South Florida Scholar Commons Graduate Theses and Dissertations Graduate School June 2018 Assessing Bald Cypress (Taxodium distichum) Tree Dynamic Change in USF Forest Preserve Area Using Mixture-Tuned Matched Filtering and Multitemporal Satellite Imagery Yujia Wang University of South Florida, [email protected] Follow this and additional works at: https://scholarcommons.usf.edu/etd Part of the Geology Commons Scholar Commons Citation Wang, Yujia, "Assessing Bald Cypress (Taxodium distichum) Tree Dynamic Change in USF Forest Preserve Area Using Mixture- Tuned Matched Filtering and Multitemporal Satellite Imagery" (2018). Graduate Theses and Dissertations. https://scholarcommons.usf.edu/etd/7375 This Thesis is brought to you for free and open access by the Graduate School at Scholar Commons. It has been accepted for inclusion in Graduate Theses and Dissertations by an authorized administrator of Scholar Commons. For more information, please contact [email protected]. Assessing Bald Cypress (Taxodium distichum) Tree Dynamic Change in USF Forest Preserve Area Using Mixture-Tuned Matched Filtering and Multitemporal Satellite Imagery by Yujia Wang A thesis submitted in partial fulfillment of the requirement for the degree of Master of Science School of Geosciences College of Art and Science University of South Florida Co-Major Professor: Ping Wang, Ph.D. Co-Major Professor: Ruiliang Pu, Ph.D. Joni Downs, Ph.D. Date of Approval: June 26, 2018 Keywords: Remote Sensing, bald cypress tree, Linear Spectral Unmixing, abundance -
Bald Cypress & Dawn Redwood
Bald Cypress & Dawn Redwood: Deciduous Conifers and Newcomers to the Urban Landscape By: Dan Petters University of Minnesota Department of Forest Resources Urban Forestry Outreach Research and Extension Lab and Nursery February, 2020 Many Minnesotans are already familiar with one type of deciduous conifer: our native tamarack (Larix laricina). Those deciduous conifers are fairly unique and relatively uncommon. They have both needle-like leaves and seeds contained in some sort of cone, but also drop their needles annually with the changing seasons. Tamaracks are often found growing in bogs or other acidic, lowland or wet sites, as well as many upland sites, and have clustered tufts of soft needles that turn yellow and are shed annually. Though, aside from our native, a couple other deciduous conifers of the Cupressaceae family have begun to make an appearance in urban and garden landscapes over the last several decades: dawn redwood (Metasequoia glyptostroboides) and bald cypress (Taxodium distichum). Dawn redwood bark and form -- John Ruter, A couple of factors have made the introduction of these two species University of Georgia, possible. Dawn redwood was thought to be extinct until the 1940s, but the Bugwood.org discovery of some isolated pockets in China made the distribution of seeds and introduction of the tree possible worldwide. Bald cypress is native to much of the southeastern US, growing in a variety of sites including standing water. Historically, this tree would not have been able to survive the harshest winters this far north, but the warming Minnesota climate over the last several decades has allowed bald cypress to succeed in a variety of plantings.