Perennial Staple Crops of the World
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Comparative Evaluation of Rice SSR Markers on Different Oryza Species Getachew Melaku1*, Shilai Zhang1 and Teklehaymanot Haileselassie2
ew Vol 1 | Issue 1 | Pages 38-48 Journal of Rice Research and Developments ISSN: 2643-5705 Research Article DOI: 10.36959/973/418 Comparative Evaluation of Rice SSR Markers on Different Oryza Species Getachew Melaku1*, Shilai Zhang1 and Teklehaymanot Haileselassie2 1Research Center of Perennial Rice Engineering and Technology in Yunnan, School of Agriculture, Yunnan University, Kunming 650091, China 2Institute of Biotechnology, College of Natural and Computational Sciences, Addis Ababa University, Ethiopia Abstract The growing number of rice microsatellite markers permit a comprehensive comparison of allelic variation among the markers developed using different methods, with diverse repeat motifs and at variable genomic regions. Under this study, comparison between a set of 67 microsatellite markers representing the whole (twelve) rice chromosomes was done over worldwide collections of nine species of the genus Oryza. These SSR markers were evaluated for the genetic parameters such as; number of alleles amplified per primers, observed heterozygosity, gene diversity, rare allelic frequency and Polymorphic Information Content (PIC) values. Among the microsatellite markers that were assessed in the present study, highest overall degree of genetic diversity was recorded on a dinucleotide repeat motif containing markers. Therefore, employing such very informative markers for future molecular characterization and diversity study of Oryza species is advisable. The unique alleles generated from those polymorphic markers could also have significant -
Genetic Variation and Agronomic Features of Metroxylon Palms in Asia and Pacific
Chapter 4 Genetic Variation and Agronomic Features of Metroxylon Palms in Asia and Pacific Hiroshi Ehara Abstract Fourteen genera among three subfamilies in the Arecaceae family are known to produce starch in the trunk. The genus Metroxylon is the most productive among them and is classified into section Metroxylon including only one species, M. sagu (sago palm: called the true sago palm), distributed in Southeast Asia and Melanesia and section Coelococcus consisting of M. amicarum in Micronesia, M. salomonense and M. vitiense in Melanesia, M. warburgii in Melanesia and Polynesia, and M. paulcoxii in Polynesia. In sago palm, a relationship between the genetic distance and geographical distribution of populations was found as the result of a random amplified polymorphic DNA analysis. A smaller genetic variation of sago palm in the western part than in the eastern part of the Malay Archipelago was also found, which indicated that the more genetically varied populations are distributed in the eastern area and are possibly divided into four broad groups. Metroxylon warburgii has a smaller trunk than sago palm, but the trunk length of M. salomonense, M. vitiense, and M. amicarum is comparable to or longer than that of sago palm. Their leaves are important as building and houseware material, and the hard endosperm of M. amicarum and M. warburgii seeds is utilized as craftwork material. Preemergent young leaves around the growing point of M. vitiense are utilized as a vegetable. Regarding starch yield, palms in Coelococcus are all low in the dry matter and pith starch content as compared with sago palm. For this reason, M. -
Hiroshi Ehara · Yukio Toyoda Dennis V. Johnson Editors
Hiroshi Ehara · Yukio Toyoda Dennis V. Johnson Editors Sago Palm Multiple Contributions to Food Security and Sustainable Livelihoods Sago Palm Hiroshi Ehara • Yukio Toyoda Dennis V. Johnson Editors Sago Palm Multiple Contributions to Food Security and Sustainable Livelihoods Editors Hiroshi Ehara Yukio Toyoda Applied Social System Institute of Asia; College of Tourism International Cooperation Center for Rikkyo University Agricultural Education Niiza, Saitama, Japan Nagoya University Nagoya, Japan Dennis V. Johnson Cincinnati, OH, USA ISBN 978-981-10-5268-2 ISBN 978-981-10-5269-9 (eBook) https://doi.org/10.1007/978-981-10-5269-9 Library of Congress Control Number: 2017954957 © The Editor(s) (if applicable) and The Author(s) 2018, corrected publication 2018. This book is an open access publication. Open Access This book is licensed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license and indicate if changes were made. The images or other third party material in this book are included in the book’s Creative Commons license, unless indicated otherwise in a credit line to the material. If material is not included in the book’s Creative Commons license and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. The use of general descriptive names, registered names, trademarks, service marks, etc. -
Plants for Tropical Subsistence Farms
SELECTING THE BEST PLANTS FOR THE TROPICAL SUBSISTENCE FARM By Dr. F. W. Martin. Published in parts, 1989 and 1994; Revised 1998 and 2007 by ECHO Staff Dedication: This document is dedicated to the memory of Scott Sherman who worked as ECHO's Assistant Director until his death in January 1996. He spent countless hours corresponding with hundreds of missionaries and national workers around the world, answering technical questions and helping them select new and useful plants to evaluate. Scott took special joy in this work because he Photo by ECHO Staff knew the God who had created these plants--to be a blessing to all the nations. WHAT’S INSIDE: TABLE OF CONTENTS HOW TO FIND THE BEST PLANTS… Plants for Feeding Animals Grasses DESCRIPTIONS OF USEFUL PLANTS Legumes Plants for Food Other Feed Plants Staple Food Crops Plants for Supplemental Human Needs Cereal and Non-Leguminous Grain Fibers Pulses (Leguminous Grains) Thatching/Weaving and Clothes Roots and Tubers Timber and Fuel Woods Vegetable Crops Plants for the Farm Itself Leguminous Vegetables Crops to Conserve or Improve the Soil Non-Leguminous Fruit Vegetables Nitrogen-Fixing Trees Leafy Vegetables Miners of Deep (in Soil) Minerals Miscellaneous Vegetables Manure Crops Fruits and Nut Crops Borders Against Erosion Basic Survival Fruits Mulch High Value Fruits Cover Crops Outstanding Nuts Crops to Modify the Climate Specialty Food Crops Windbreaks Sugar, Starch, and Oil Plants for Shade Beverages, Spices and Condiment Herbs Other Special-Purpose Plants Plants for Medicinal Purposes Living Fences Copyright © ECHO 2007. All rights reserved. This document may be reproduced for training purposes if Plants for Alley Cropping distributed free of charge or at cost and credit is given to ECHO. -
Pandanus Ific Food Leaflet N° Pac 6 ISSN 1018-0966
A publication of the Healthy Pacific Lifestyle Section of the Secretariat of the Pacific Community Pandanus ificifoodileafieiin° Pac i6 ISSN 1018-0966 n parts of the central and northern Pacific, pandanus is a popular food item used in a variety of interesting ways. However, on many other IPacific Islands, pandanus is not well-known as a food. There are many varieties of pandanus, but only In Kiribati, pandanus is called the ‘tree of life’ as it some have edible fruits and nuts. The plants have provides food, shelter and medicine. In the Marshall a distinctive shape and the near-coastal species, Islands, it is called the ‘divine tree’, like coconut, Pandanus tectorius, is found on most Pacific Islands. because of its important role in everyday life. Pandanus The bunches of fruit have many sections called ‘keys’, is also an important staple food in the Federated States which weigh from around 60 to 200 grams each. of Micronesia (FSM), Tuvalu, Tokelau and Papua New (The botanical term for these keys is phalanges, which Guinea. Dried pandanus was once an important food means ‘finger bones’.) People often eat the keys raw, for voyagers on outrigger canoes, enabling seafarers of but the juicy pulp can also be extracted and cooked long ago to survive long journeys. or preserved. The nuts of some varieties are also eaten. In some countries, a number of pandanus varieties are conserved in genebank collections. This leaflet focuses on the Pandanus tectorius species of pandanus. However, other species, such as The pandanus plant plays an important role in Pandanus conoideus and Pandanus jiulianettii, which everyday life in the Pacific. -
422 Part 180—Tolerances and Ex- Emptions for Pesticide
Pt. 180 40 CFR Ch. I (7–1–16 Edition) at any time before the filing of the ini- 180.124 Methyl bromide; tolerances for resi- tial decision. dues. 180.127 Piperonyl butoxide; tolerances for [55 FR 50293, Dec. 5, 1990, as amended at 70 residues. FR 33360, June 8, 2005] 180.128 Pyrethrins; tolerances for residues. 180.129 o-Phenylphenol and its sodium salt; PART 180—TOLERANCES AND EX- tolerances for residues. 180.130 Hydrogen Cyanide; tolerances for EMPTIONS FOR PESTICIDE CHEM- residues. ICAL RESIDUES IN FOOD 180.132 Thiram; tolerances for residues. 180.142 2,4-D; tolerances for residues. Subpart A—Definitions and Interpretative 180.145 Fluorine compounds; tolerances for Regulations residues. 180.151 Ethylene oxide; tolerances for resi- Sec. dues. 180.1 Definitions and interpretations. 180.153 Diazinon; tolerances for residues. 180.3 Tolerances for related pesticide chemi- 180.154 Azinphos-methyl; tolerances for resi- cals. dues. 180.4 Exceptions. 180.155 1-Naphthaleneacetic acid; tolerances 180.5 Zero tolerances. for residues. 180.6 Pesticide tolerances regarding milk, 180.163 Dicofol; tolerances for residues. eggs, meat, and/or poultry; statement of 180.169 Carbaryl; tolerances for residues. policy. 180.172 Dodine; tolerances for residues. 180.175 Maleic hydrazide; tolerances for resi- Subpart B—Procedural Regulations dues. 180.176 Mancozeb; tolerances for residues. 180.7 Petitions proposing tolerances or ex- 180.178 Ethoxyquin; tolerances for residues. emptions for pesticide residues in or on 180.181 Chlorpropham; tolerances for resi- raw agricultural commodities or proc- dues. essed foods. 180.182 Endosulfan; tolerances for residues. 180.8 Withdrawal of petitions without preju- 180.183 Disulfoton; tolerances for residues. -
Introduction
Introduction R. Michael Bourke and Bryant Allen Agriculture is the most important activity carried together in a single publication where it would be out by the vast majority of Papua New Guineans. easy to access. It began as a compendium of statistics For most people, agriculture fills their lives, but has evolved into a comprehensive book of 72 physically, culturally, economically, socially and sections on PNG agriculture and related topics. The nutritionally. Yet agriculture is the most undervalued number of sections alone demonstrates how agricul- and misunderstood part of PNG life (see Twenty ture pervades almost every aspect of life in PNG. myths about PNG agriculture, page 1). The reasons Sections include information about population; for this are partly because mineral and oil exports land use; climate and other aspects of the physical make PNG comparatively wealthy for a developing environment in which agriculture occurs; overviews country; partly because agriculture is practised in of subsistence food production, with detailed the countryside, away from towns, and is therefore descriptions of production techniques and the most largely ‘invisible’ to urban people and international important food crops; descriptions of cash crop visitors; and partly because agriculture is viewed as production for both domestic and export markets; not being ‘modern’. agriculture in the broader economy; and a series of However, as this book shows, agriculture feeds most papers on agricultural development, policies and Papua New Guineans, houses them, provides a governance. An overview of 50 000 years of agricul- significant amount of food to townspeople and earns tural history in PNG follows this introduction. -
Third-Generation Biomass Crops in the New Era of De Novo Domestication
agronomy Opinion Third-Generation Biomass Crops in the New Era of De Novo Domestication Christian Wever 1,* , David L. Van Tassel 2 and Ralf Pude 1,3 1 Institute of Crop Science and Resource Conservation (INRES), Renewable Resources, University of Bonn, Klein-Altendorf 2, 53359 Rheinbach, Germany; [email protected] 2 The Land Institute, 2440 E Water Well Rd, Salina, KS 67401, USA; [email protected] 3 Faculty of Agriculture, Field Lab Campus Klein-Altendorf, University of Bonn, Klein-Altendorf 2, 53359 Rheinbach, Germany * Correspondence: [email protected]; Tel.: +49-2225-99963-52 Received: 31 July 2020; Accepted: 31 August 2020; Published: 4 September 2020 Abstract: The emerging bioeconomy will increase the need for plant biomass. We call for a third-generation of bioenergy crops, or biomass crops, to help move society towards a sustainable bioeconomy and global food security. Third-generation biomass crops should be capable of producing both food and raw materials. Such flexibility would allow farmers to respond to global markets and buffer global food security. At the same time, third-generation biomass crops need to increase the sustainability of agriculture. To reach such ambitious goals, new biomass crops have to develop de novo from promising perennial wild species. Keywords: opinion; de novo domestication; biomass crops; perennial bioenergy crops; bioeconomy; third-generation biomass crops The dilemma of devoting productive land to fuel vs. food has made bioenergy crops controversial. The critique of first-generation bioenergy crops is particularly strong [1]. Crops such as maize, rapeseed, sunflower, sugar beet and wheat were domesticated for direct human consumption, or adapted for indirect human nutrition, through the feeding of farm animals. -
V30n4p165-180
19861 RAUWERDINK:METROXYLON Principes,30(4), 1986, pp. 165-180 An Essay on Metroxylon, the Sago Palm JeNB. ReuwnRomx Department of Plant Taxonomy, Agricultural Uniaersity, Wageningen, the Netherlands P.O. Box 8010, 6700 ED Wageningen Metroxylon is a genus of arborescent under cultivation. The aim of my survey palms of Papuasia and several island and the present paper has been to report groups of Micronesia and Melanesia. There on the variability of M. sagu in PNG, in are five species occurring in five separate the context of the diversity found in the areas. The most widespread taxon, M. genus as a whole. This paper may con- scLgu, covers Malaysia, Indonesia, Min- tribute towards an eventual monograph of danao, and New Guinea. The other four Metroxylon. taxa are endemic to the aforementioned island groups. Historyof the Genus The palms accumulate starch in the pith of their trunks and are a traditional source The first and most competentpublica- of carbohydrate. The best known r-epre- tion on sagopalms is by Rumphius(1741). sentative of the genus in this respect is In the Herbarium Amboinensehe gives M. sagu, known as the sago palm. This a meticulousdescription of the sagopalm species occupies the largest area. esti- as it occurs in Ambon. and he Dresents mated to cover 4 million ha in natural the taxonomic views of the inhabiiants on stands and about .2 million ha under cul- this palm. Four Ambonesespecies are tivation. With the exception of M. salo- described under the seneric name of monense.the other tp".i"t of Melroxylon Sagris.This namewas adopted by Caert- are not exploited for their starch content. -
An Aesthetics of Rice
17 Journal of The Siam Society AN AESTHETICS OF RICE "It is necessary to build a hut to stay in while chasing birds. This duty falls on the women and children. If the birds alight they chase them away. One hears a cry of chasing away birds ... drifting down the midday air; it is a peculiar lonely sound. If the birds do not come to eat the rice, they spin cotton·and silk in order not to waste time at their work. The cotton that they spin is to be used for weaving monks' robes, in which they compete in craftsmanship on the day of presenting kathin robes ... When the birds come they use a plummet mad.e of a clump of earth with a long string to swing and throw far out. Children like this work, enjoying the task of throwing these at birds. If a younger woman goes to chase away birds she is usually accompanied by a younger brother. This is an opportunity for the young men to come and flirt, or if they are already sweethearts, they chase birds and eat together; this is a story of love in the fields." Phya Anuman Rajadhon The Life of the Farmer in Thailand, 1948. The importance of rice in Southeast Asian societies is evident from the vast mythology and literature on rice. Early mythology deals with rice as a given, a miracle crop abundant and available to people year round, the only effort exerted by them involved the daily gathering of it. Due to their own greedy attitudes concerning rice, human beings fell from this condition and had to work for their daily rice. -
Targeting Perennial Vegetation in Agricultural Landscapes for Enhancing Ecosystem Services Heidi Asbjornsen Iowa State University, [email protected]
Agricultural and Biosystems Engineering Agricultural and Biosystems Engineering Publications 2013 Targeting perennial vegetation in agricultural landscapes for enhancing ecosystem services Heidi Asbjornsen Iowa State University, [email protected] V. Hernandez-Santana Iowa State University Matthew Z. Liebman Iowa State University, [email protected] J. Bayala World Agroforestry Center J. Chen FUonilvloerwsit ythi of sT oalenddo additional works at: http://lib.dr.iastate.edu/abe_eng_pubs See nePxat pratge of for the addiAtiongraicl aulturuthors al Science Commons, Agriculture Commons, Agronomy and Crop Sciences Commons, Bioresource and Agricultural Engineering Commons, and the Natural Resources Management and Policy Commons The ompc lete bibliographic information for this item can be found at http://lib.dr.iastate.edu/ abe_eng_pubs/374. For information on how to cite this item, please visit http://lib.dr.iastate.edu/ howtocite.html. This Article is brought to you for free and open access by the Agricultural and Biosystems Engineering at Iowa State University Digital Repository. It has been accepted for inclusion in Agricultural and Biosystems Engineering Publications by an authorized administrator of Iowa State University Digital Repository. For more information, please contact [email protected]. Targeting perennial vegetation in agricultural landscapes for enhancing ecosystem services Abstract Over the past century, agricultural landscapes worldwide have increasingly been managed for the primary purpose of producing food, while other -
5 Pacific Ocean Region
Tropical Palms 107 5 PACIFIC OCEAN REGION This chapter considers the islands of the Pacific Ocean which are geographically divided into Micronesia, Melanesia and Polynesia. Micronesia delimits islands in the western Pacific and consists of the Mariana, Palau, Caroline, Marshall and Gilbert island groups. Melanesia lies to the northeast of Australia and includes New Caledonia, Vanuatu, Solomon Islands and Fiji. Polynesia designates the islands of the central Pacific, including Samoa (Western and American), French Polynesia (Marquesas, Society Islands, etc.) and Tonga. Papua New Guinea is also included within the scope of this chapter; politically the nation of Papua New Guinea consists of the eastern portion of the island of New Guinea and the Bismarck Archipelago as well as Bougainville. The following geographic areas where palms occur are excluded from discussion in this chapter and this report: The Hawaiian Islands; New Zealand, including the Kermadec Islands; Australia and its island territories (e.g. Lord Howe, Norfolk, Christmas and Cocos); and the Bonin and Ryukyu Islands belonging to Japan. The Pacific Ocean Region presents some very unusual patterns of native palm diversity. In the entire area of Micronesia there are only about ten species of native palms (Moore and Fosberg, 1956). The situation in Polynesia is comparable. In marked contrast Melanesia has much greater native palm diversity. For example, New Caledonia alone has 37 indigenous palm species, all endemic (Hodel and Pintaud, 1998; Moore and Uhl, 1984) and Vanuatu has 21 native palms (Dowe and Cabalion, 1996). Papua New Guinea and its islands hold a very rich diversity of palms, with about 270 native species in 31 genera (Baker and Dransfield, 2006; Essig, 1995; Hay, 1984).