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Role of Wild Leguminous Plants in Grasslands Management in Forest Ecosystem of Protected Areas of Madhya Pradesh State
Vol-6 Issue-2 2020 IJARIIE-ISSN(O)-2395-4396 Role of wild leguminous plants in grasslands management in forest ecosystem of Protected Areas of Madhya Pradesh State Muratkar G. D. , Kokate U. R G. D. Muratkar Department of Environmental Science , Arts , Science and Commerce college Chikhaldara , District Amravati 444807 U. R. Kokate Department of Botany , Arts , Science and Commerce college Chikhaldara , District Amravati 444807 ABSTRACT Grasslands in melghat forest are of annual , taller type with course grasses. The dominant grasses are Themeda quadrivalvis , Heteropogon contortus , Apluda mutica , Chloris barbata . The soil is murmi red with low water holding capacity , in some parts the soil diversity observed black , red soil with clay , silt , sand and loam. The grasses are annual and very few are perennials like Dicanthium annulatum , Dicanthium caricosum , Cynodon barberi , Bothrichloa bladhii. The palatability of th grasses depends upon the soil nutrients , chemicals. The soil in which the wild leguminous plants like Vigna trilobata , Phaseolus radiate , Glycine max , Rhyncosia minima shows the more distribution of wild leguminous plants the soil is with more nitrogenous content due to biological nitrogen fixation and the soil shows the effects on fodder value of the grasses. Keywords : Grasslands Protected Areas , palatable grasses , soil fertility , Wild leguminous plants Introduction Madhya Pradesh is one of those promising states in India.Whether it's Bandhavgarh or Kanha or Pench, each and every national park is far from the civilization and has a rustic charm of its own. Remarkable flora and fauna of these nine National Parks is matched by scenic landscapes along with the incredible diversity. -
A Preliminary Phytolith Reference Collection for the Mountains of Dhufar, Oman
The use of phytoliths as a proxy for distinguishing ecological communities: A preliminary phytolith reference collection for the mountains of Dhufar, Oman Undergraduate Research Thesis Presented in Partial Fulfillment of the Requirements for Graduation “with Honors Research Distinction in Evolution and Ecology” in the Undergraduate Colleges of The Ohio State University by Drew Arbogast The Ohio State University May 2019 Project Co-Advisors: Professor Ian Hamilton, Department of Evolution, Ecology, and Organismal Biology Professor Joy McCorriston, Department of Anthropology 2 Table of Contents Page List of Tables...................................................................................................................................3 List of Figures..................................................................................................................................4 Abstract............................................................................................................................................5 Introduction......................................................................................................................................6 Background......................................................................................................................................7 Materials and Methods...................................................................................................................11 Results............................................................................................................................................18 -
Flora of China 22: 633–637. 2006. 213. THEMEDA Forsskål, Fl. Aegypt
Flora of China 22: 633–637. 2006. 213. THEMEDA Forsskål, Fl. Aegypt.-Arab. 178. 1775. 菅属 jian shu Chen Shouliang (陈守良); Sylvia M. Phillips Anthistiria Linnaeus f. Perennial or annual, often coarse. Culms tufted. Leaf sheaths keeled; leaf blades linear; ligule short, membranous or papery. Inflorescence a leafy compound panicle composed of short racemes; each raceme on a short peduncle subtended by a sheathing spatheole, loosely arranged or gathered into fan-shaped spathate fascicles. Raceme comprising 2 pairs of large sessile homogamous spikelets at base forming an involucre, with 1–2(–5) fertile pairs above and a terminal triad, these usually deciduous, rarely raceme shed as a whole; internodes and pedicels linear. Sessile spikelet subterete or dorsally compressed; callus mostly acute to pungent, sometimes obtuse, bearded; lower glume usually leathery, margins rounded, incurving, keeled only near apex, obtuse; upper glume awnless; lower floret reduced to a hyaline lemma; upper lemma stipitiform, entire, passing into a geniculate awn with pubescent column, occasionally awnless. Pedicelled spikelet mostly larger than sessile, narrowly lanceolate, resembling homogamous; callus slender, pedicel-like; true pedicel reduced. x = 10. Twenty-seven species: tropical and subtropical regions of the Old World, mainly in Asia; 13 species (four endemic) in China. The number of spikelets in a raceme refers to the total of homogamous, sessile, and pedicelled spikelets. Hence racemes with seven spikelets (division 1a of the key) have only one fertile sessile spikelet and one awn. Racemes with more than one awn have more than seven spikelets. Most species of this genus are used for forage when young. 1a. -
GROWTH RETARDATION of MOCKORANGE HEDGE, Murraya Paniculata (L.) Jack
GROWTH RETARDATION OF MOCKORANGE HEDGE, Murraya paniculata (L.) Jack, BY DIKEGULAC-SODIUM A THESIS SUBMITTED TO THE GRADUATE DIVISION OF THE UNIVERSITY OF HAWAII IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE DEGREE OF MiASTER OF SCIENCE IN HORTICULTURE AUGUST 1981 By Osamu Kawabata Thesis Committee: Richard A. Criley, Chairman Roy K. Nishimoto Douglas J. Friend We certify that we have read this thesis and that in our opinion it is satisfactory in scope and quality as a thesis for the degree of Master of Science in Horticulture. THESIS COMMITTEE Chairman 11 TABLE OF CONTENTS LIST OF TABLES......................................... iv LIST OF F I G U R E S .................................... v INTRODUCTION ........................................ 1 LITERATURE REVIEW .................................. 2 MATERIALS AND METHODS .............................. 20 RESULTS AND DISCUSSION .............................. 33 SUMMARY ............................................... 67 APPENDICES............................................. 68 BIBLIOGRAPHY (Literature cited) .................... 87 111 LIST OF TABLES Table Page 1 Some Properties of Dikegulac-sodium ....................... 9 2 Growth Retardation of Hedge Plants by Dikegulac-sodium . 15 3 Growth Retardation of Tree Species by Dikegulac-sodium . 16 K Species Which Showed a Growth Promotion Response to Dikegulac-sodium ........................................ 17 Appendix Table 1 ANOVA for Testing Uniformity of Growth .................. 68 2 ANOVA for Preliminary Experiment 1 69 3 ANOVA for Comparing Growth at Two Positions.............. 70 4. ANOVA for Preliminary Experiment 2 ...................... 71 5 ANOVA for Experiment I on the Longest S h o o t s ........ 72 6 ANOVA for Experiment I on the Randomly Sampled Shoots . 73 7 ANOVA for Experiment I I .................................. IL, 8 F Numbers for Concentrations ............................. 75 9 ANOVA for Experiment I I I ................................. 76 10 ANOVA for Experiment I V .................................. -
Ornamental Garden Plants of the Guianas Pt. 2
Surinam (Pulle, 1906). 8. Gliricidia Kunth & Endlicher Unarmed, deciduous trees and shrubs. Leaves alternate, petiolate, odd-pinnate, 1- pinnate. Inflorescence an axillary, many-flowered raceme. Flowers papilionaceous; sepals united in a cupuliform, weakly 5-toothed tube; standard petal reflexed; keel incurved, the petals united. Stamens 10; 9 united by the filaments in a tube, 1 free. Fruit dehiscent, flat, narrow; seeds numerous. 1. Gliricidia sepium (Jacquin) Kunth ex Grisebach, Abhandlungen der Akademie der Wissenschaften, Gottingen 7: 52 (1857). MADRE DE CACAO (Surinam); ACACIA DES ANTILLES (French Guiana). Tree to 9 m; branches hairy when young; poisonous. Leaves with 4-8 pairs of leaflets; leaflets elliptical, acuminate, often dark-spotted or -blotched beneath, to 7 x 3 (-4) cm. Inflorescence to 15 cm. Petals pale purplish-pink, c.1.2 cm; standard petal marked with yellow from middle to base. Fruit narrowly oblong, somewhat woody, to 15 x 1.2 cm; seeds up to 11 per fruit. Range: Mexico to South America. Grown as an ornamental in the Botanic Gardens, Georgetown, Guyana (Index Seminum, 1982) and in French Guiana (de Granville, 1985). Grown as a shade tree in Surinam (Ostendorf, 1962). In tropical America this species is often interplanted with coffee and cacao trees to shade them; it is recommended for intensified utilization as a fuelwood for the humid tropics (National Academy of Sciences, 1980; Little, 1983). 9. Pterocarpus Jacquin Unarmed, nearly evergreen trees, sometimes lianas. Leaves alternate, petiolate, odd- pinnate, 1-pinnate; leaflets alternate. Inflorescence an axillary or terminal panicle or raceme. Flowers papilionaceous; sepals united in an unequally 5-toothed tube; standard and wing petals crisped (wavy); keel petals free or nearly so. -
UC Riverside UC Riverside Electronic Theses and Dissertations
UC Riverside UC Riverside Electronic Theses and Dissertations Title Cross-Compatibility, Graft-Compatibility, and Phylogenetic Relationships in the Aurantioideae: New Data From the Balsamocitrinae Permalink https://escholarship.org/uc/item/1904r6x3 Author Siebert Wooldridge, Toni Jean Publication Date 2016 Supplemental Material https://escholarship.org/uc/item/1904r6x3#supplemental Peer reviewed|Thesis/dissertation eScholarship.org Powered by the California Digital Library University of California UNIVERSITY OF CALIFORNIA RIVERSIDE Cross-Compatibility, Graft-Compatibility, and Phylogenetic Relationships in the Aurantioideae: New Data From the Balsamocitrinae A Thesis submitted in partial satisfaction of the requirements for the degree of Master of Science in Plant Biology by Toni J Siebert Wooldridge December 2016 Thesis committee: Dr. Norman C. Ellstrand, Chairperson Dr. Timothy J. Close Dr. Robert R. Krueger The Thesis of Toni J Siebert Wooldridge is approved: Committee Chairperson University of California, Riverside ACKNOWLEDGEMENTS I am indebted to many people who have been an integral part of my research and supportive throughout my graduate studies: A huge thank you to Dr. Norman Ellstrand as my major professor and graduate advisor, and to my supervisor, Dr. Tracy Kahn, who helped influence my decision to go back to graduate school while allowing me to continue my full-time employment with the UC Riverside Citrus Variety Collection. Norm and Tracy, my UCR parents, provided such amazing enthusiasm, guidance and friendship while I was working, going to school and caring for my growing family. Their support was critical and I could not have done this without them. My committee members, Dr. Timothy Close and Dr. Robert Krueger for their valuable advice, feedback and suggestions. -
Cymbopogon Refractus, Is a Native, Grass, Themeda Triandra Kangaroo of Lemon Grass, Cymbopogon Citratus
In recent years, native grasses have become increasingly popular for home gardens. Barbed Wire Grass, Cymbopogon refractus, is a native, long lived, perennial tussock grass, not dissimilar to another popular native grass, Themeda triandra Kangaroo Grass. The inflorescences (arrangement of flowers) are curious, some angled upwards, some spreading widely away from the stem and yet others reflexed downwards, so that the clusters are quite reminiscent of the barbs of a barbed wire fence, albeit without the rigidity and the sharp spines. Hence the common name Barbed Wire Grass. Barbed Wire Grass is interesting in other ways too. It may be an Australian native, widespread in eastern Australia, but it does have some famous relatives. If you crush and smell a leaf, it’s strongly aromatic, and smells of citrus, with perhaps a hint of ginger. You would be correct in guessing that it’s a very close relation of Lemon Grass, Cymbopogon citratus, the herb about which we are now so passionate, and an essential in south- east Asian cuisine. Another interesting relative is Citronella Grass, Cymbopogon nardus, a much taller grass from Indonesia. This is the source of the insect repellent (especially for mosquitoes) citronella oil. Geraniol and citronellol, the principal chemical constituents of citronella, are used in soaps and disinfectants. Barbed Wire Grass is common in Eucalyptus woodlands, and can grow on a wide range of soils of low fertility. It is also a useful fodder plant, as long as it isn’t grazed continuously. It has become naturalised on Pacific Islands, including Norfolk Island, New Caledonia, Vanuatu, Fiji, the Cook Islands, Tahiti and Hawaii. -
Murraya Paniculata
Murraya paniculata (Orange Jasmine, Chalcas) Orange Jasmine is a medium-sized shrub, with an upright and spreading, compact habit and dense crown of glossy green leaves. The leaves are compound--made up of five to seven small, oval leaflets that are glossy dark green. At branch tips anytime of year, when warm enough, tight clusters of white, five-petalled flowers appear, attracting bees and butterflies. Red berries appear directly after blooming. and they are attractive to birds The shrub is well-suited to shearing into a formal hedge or screen and can tolerate very harsh pruning. It has a very rapid growth rate during young age but later on it will slow down with age. Orange Jasmine grows best in well-drained, nematode-free soil with acidic or neutral pH with moderate moisture and is well-suited for use as a tall informal screen in full sun or light shade. It has some tolerance of drought and light frost Orange Jasmine is also very attractive when pruned to a small, single or multi-trunked ornamental tree. Landscape Information French Name: Le buis de Chine ou bois jasmin Pronounciation: mer-RAY-yuh pan-nick-yoo- LAY-tuh Plant Type: Shrub Origin: Southern Asia, India, China Heat Zones: 9, 10, 11, 12, 13, 14, 15, 16 Hardiness Zones: 9, 10, 11, 12 Uses: Screen, Hedge, Bonsai, Specimen, Container, Wildlife Size/Shape Growth Rate: Moderate Tree Shape: Round Canopy Symmetry: Symmetrical Plant Image Canopy Density: Medium Canopy Texture: Medium Height at Maturity: 1.5 to 3 m Spread at Maturity: 1.5 to 3 meters Time to Ultimate Height: 5 to -
The Asian Citrus Psyllid and the Citrus Disease Huanglongbing
The Asian Citrus Psyllid and the Citrus Disease Huanglongbing Psyllid M. Rogers Beth Grafton-Cardwell Dept of Entomology, UC Riverside and Director Lindcove Research and Extension Center Huanglongbing It has an egg stage, 5 wingless intermediate stages called nymphs, and winged adults Adult The pest insect Egg 5 Nymphs (insects molt to grow bigger) Adult psyllids can feed on either young or mature leaves. This allows adults to survive year-round. The pest insect M. Rogers When feeding, the adult leans forward on its elbows and tips its rear end up in a very o M. Rogers characteristic 45 angle. The eggs are yellow-orange, tucked into the tips of tiny new leaves. They are difficult to see because they are so small The pest insect M. Rogers The nymphs produce waxy tubules that direct the honeydew away from their bodies. These tubules are unique and easy to recognize. Nymphs can only survive by living on young, tender The leaves and stems. pest insect M. Rogers Thus, nymphs are found only when the plant is producing new leaves. M. Rogers As the psyllid feeds, it injects a salivary toxin that causes the tips of new leaves to easily break off. If the leaf survives, then it twists as it grows. Twisted leaves can be a sign that the psyllid has been there. The pest insect M. Rogers M. Rogers M. Rogers What plants can the psyllid attack? All types of citrus and closely related plants in the Rutaceae family • Citrus (limes, lemons, oranges, grapefruit, mandarins…) • Fortunella (kumquats) • Citropsis (cherry orange) • Murraya paniculata (orange jasmine) • Bergera koenigii (Indian curry leaf) Plants • Severinia buxifolia (Chinese box orange) affected • Triphasia trifolia (limeberry) • Clausena indica (wampei) • Microcitrus papuana (desert-lime) • Others…. -
Standardization of Grafting Technique in Curry Leaf (Murraya Koenigii
Standardization of Grafting technique in Curry leaf (Murraya koenigii Spreng.) Sandhya.S 1, Jegadeeswari.V 2, Shoba.N 3 and Jeyakumar.P 4 1 Research scholar, Department of Spices and Plantation Crops, HC & RI, TNAU, Coimbatore 2 Assistant Professor, Department of Spices and Plantation Crops, HC & RI, TNAU, Coimbatore 3 Professor, Department of Spices and Plantation Crops, HC & RI, TNAU, Coimbatore 4 Professor and Head, Department of Crop Physiology, TNAU, Coimbatore Introduction Results • Curry Leaf – Murraya koenigii Spreng. Graft combinations Graft success No. of days taken Number of leaves / Length of • Family - Rutaceae Percentage (%) for sprouting leaflet (cm) leaflet (cm) • Sub-family - Aurantioideae. • Curry leaf is also known as a miracle plant. Senkambu grafted on to Curry leaf wild type rootstock (T ) 1 66 12.00 10.6 10.38 • The genus Murraya has nearly 14 species worldwide and Senkambu grafted on to Wood apple rootstock (T ) two genus viz., Murraya koenigii Spreng. and Murraya 2 14 7.54 10.5 6.8 paniculate (Jackfruit) are native to India. Senkambu grafted on to - - • Curry leaf is commercially propagated by seeds or Bael rootstock(T3) 0 6.30 suckers. Senkambu grafted on to 7 3 • Seeds are recalcitrant and cannot be stored for long Orange jasmine rootstock (T4) 6 12.94 periods (Sivasubramanian et al., 2012). SP DAG NOL/L LLT • Attempts to propagate curry leaf through air layering Sed 2.97 1.31 1.03 0.69 have not been successful. CD (p=0.05) 6.30** 2.78** 2.18** 1.46** • Grafting studies was carried out in curry leaf to identify a suitable and drought tolerant rootstock to get Discussion uniform plant population under water deficit condition. -
Rangeland Ecophysiology - Jenesio I
RANGE AND ANIMAL SCIENCES AND RESOURCES MANAGEMENT - Vol. I ‐ Rangeland Ecophysiology - Jenesio I. Kinyamario, Victor R. Squires RANGELAND ECOPHYSIOLOGY Jenesio I. Kinyamario University of Nairobi, School of Biological Sciences, Nairobi, Kenya Victor R. Squires University of Adelaide, Australia Keywords: C3, C4, photosynthesis, water use efficiency, nitrogen, productivity, rangeland management, crassulacean acid metabolism (CAM), physiological processes, CO2 fixation, Leaf area index (LAI), photosynthetically active radiation (PAR) Contents 1. Implications of plant physiological processes for rangeland ecosystems 1.1. Plant Level Interactions 1.2. Management Implications: 2. Photosynthesis 2.1. C3, C4 Pathways in Photosynthesis 2.2. Crassulacean Acid Metabolism (CAM) 3. Geographical and ecological distribution of different photosynthetic pathway plants 4. Comparative analysis of photosynthetic pathways 4.1. CO2 Compensation Point 4.2. Light Saturation 4.3. Light Compensation Point 4.4. Temperature Optima 4.5. Water Use Efficiency 4.6. Nitrogen Use Efficiency 4.7. Photorespiration 5. Photosynthetic capacity, quantum yield, and productivity 6. Implications for Rangeland Management 6.1. Herbivory 6.2. Carbohydrate Reserves 6.3. Drought and Overgrazing Combine to Cause Much Stress 6. 4. Climate Change 6.5. Invasive Species 6.6. Fires 7. ConclusionsUNESCO – EOLSS Glossary Bibliography SAMPLE CHAPTERS Biographical Sketches Summary Plants fix radiant energy through fixation of carbon into biomass that is consumed by animals. Therefore, the rates of carbon fixation and factors that determine these rates will determine the number of grazers a rangeland can be able to optimally carry (carrying capacity). Environmental factors that determine bioproductivity rates are ©Encyclopedia of Life Support Systems (EOLSS) RANGE AND ANIMAL SCIENCES AND RESOURCES MANAGEMENT - Vol. -
Investigation of Mitochondrial-Derived Plastome Sequences in the Paspalum Lineage (Panicoideae; Poaceae) Sean V
Burke et al. BMC Plant Biology (2018) 18:152 https://doi.org/10.1186/s12870-018-1379-1 RESEARCH ARTICLE Open Access Investigation of mitochondrial-derived plastome sequences in the Paspalum lineage (Panicoideae; Poaceae) Sean V. Burke1* , Mark C. Ungerer2 and Melvin R. Duvall1 Abstract Background: The grass family (Poaceae), ca. 12,075 species, is a focal point of many recent studies that aim to use complete plastomes to reveal and strengthen relationships within the family. The use of Next Generation Sequencing technology has revealed intricate details in many Poaceae plastomes; specifically the trnI - trnL intergenic spacer region. This study investigates this region and the putative mitochondrial inserts within it in complete plastomes of Paspalum and other Poaceae. Results: Nine newly sequenced plastomes, seven of which contain an insert within the trnI - trnL intergenic spacer, were combined into plastome phylogenomic and divergence date analyses with 52 other species. A robust Paspalum topology was recovered, originating at 10.6 Ma, with the insert arising at 8.7 Ma. The alignment of the insert across Paspalum reveals 21 subregions with pairwise homology in 19. In an analysis of emergent self- organizing maps of tetranucleotide frequencies, the Paspalum insert grouped with mitochondrial DNA. Conclusions: A hypothetical ancestral insert, 17,685 bp in size, was found in the trnI - trnL intergenic spacer for the Paspalum lineage. A different insert, 2808 bp, was found in the same region for Paraneurachne muelleri. Seven different intrastrand deletion events were found within the Paspalum lineage, suggesting selective pressures to remove large portions of noncoding DNA. Finally, a tetranucleotide frequency analysis was used to determine that the origin of the insert in the Paspalum lineage is mitochondrial DNA.