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Through the Zone of Nonbeing: a Reading of Black Skin, White Masks in Celebration of Fanon’S Eightieth Birthday*
Through the Zone of Nonbeing: A Reading of Black Skin, White Masks in Celebration of Fanon’s Eightieth Birthday* LEWIS R. GORDON Introduction anon was an ironic writer who was struggling with the complex question of paradoxical reason Fand paradoxical history. The modern collapse of “Reason” and “History” into all things European represented a failure of Reason and History that required self-deception regarding Europe’s scope. Put differently: Europe sought to become ontological; it sought to become what dialecticians call “Absolute Being.” Such Being stood in the way of human being or a human way of being. It thus presented itself as a theodicy. Theodicy is the branch of inquiry that attempts to account for the compatibility of God’s omnipotence, omniscience, and goodness in the face of injustice and evil. There are several formulations of the problem: If God has the power to do something about injustice and evil, why doesn’t He? If God has created everything, and God is perfect, how could God create imperfect (often evil) beings? If God has foreknowledge, how could we continue to insist on God’s goodness when He had advanced knowledge of the consequences of his creation? There have been many classical efforts to address this problem. The most influential has been St. Augustine’s insistence, in The City of God, that God’s love for humanity required human freedom, and freedom requires the ability to do right or wrong. The problem does not only emerge in the Western tradition. Among the Akan of Ghana, for instance, the problem emerges as well, and solutions similar to St. -
Introducing a Genetically Modified Banana in Uganda: Social Benefits
IFPRI Discussion Paper 00767 May 2008 Introducing a Genetically Modified Banana in Uganda Social Benefits, Costs, and Consumer Perceptions Enoch Kikulwe, Wageningen University Justus Wesseler, Wageningen University and José Falck-Zepeda, International Food Policy Research Institute Environment and Production Technology Division INTERNATIONAL FOOD POLICY RESEARCH INSTITUTE The International Food Policy Research Institute (IFPRI) was established in 1975. IFPRI is one of 15 agricultural research centers that receive principal funding from governments, private foundations, and international and regional organizations, most of which are members of the Consultative Group on International Agricultural Research (CGIAR). FINANCIAL CONTRIBUTORS AND PARTNERS IFPRI’s research, capacity strengthening, and communications work is made possible by its financial contributors and partners. IFPRI gratefully acknowledges the generous unrestricted funding from Australia, Canada, China, Finland, France, Germany, India, Ireland, Italy, Japan, Netherlands, Norway, Philippines, Sweden, Switzerland, United Kingdom, United States, and World Bank. Published by INTERNATIONAL FOOD POLICY RESEARCH INSTITUTE 2033 K Street, NW Washington, DC 20006-1002 USA Tel.: +1-202-862-5600 Fax: +1-202-467-4439 Email: [email protected] www.ifpri.org Notices 1 Effective January 2007, the Discussion Paper series within each division and the Director General’s Office of IFPRI were merged into one IFPRI–wide Discussion Paper series. The new series begins with number 00689, reflecting the prior publication of 688 discussion papers within the dispersed series. The earlier series are available on IFPRI’s website at www.ifpri.org/pubs/otherpubs.htm#dp. 2 IFPRI Discussion Papers contain preliminary material and research results. They have not been subject to formal external reviews managed by IFPRI’s Publications Review Committee but have been reviewed by at least one internal and/or external reviewer. -
History of the Banana
History of the Banana Bananas: The Same The World Over Banana is the common name for the fruit and herbaceous plant that is part of the genus Musa. Bananas are one of the world’s oldest and most popular fruits. They are very nutritious, generally inexpensive, and readily available. The banana plant is a large flowering plant that grows 6–7 meters tall. Each plant produces a bunch of bananas from a flowering stem. Whether eating a ripe banana in the United States or in Europe, these store-bought bananas tend to taste the same. Part of the banana’s popularity is due to its predictably delicious flavor. However, the uniformity that makes the banana so popular could also lead to its demise. A bunch of bananas hangs from the main stem of the Banana History plant. As humans’ hunter-gatherer ancestors roamed the jungle collecting food, they ignored the bananas they found. Wild bananas, which flower and reproduce sexually, produce hard seed cases with inedible seeds inside. Occasionally, prehistoric humans found fruit on wild banana plants that did not contain seeds. These seedless bananas, when peeled, contained sweet, edible flesh. This is the edible banana that people know and enjoy today. Today’s edible banana is a genetic mutation. The mutation produces tasty fruit but prevents proper seed development. The dark lines sometimes seen after biting into a banana are the stunted seeds. Banana Sexual Reproduction In nature, bananas reproduce through sexual reproduction. Sexual reproduction in flowering plants is similar to sexual reproduction in animals. Sperm cells are produced inside pollen grains. -
Bananas Are a Long, Thick-Skinned Fruit
Bananas are a long, thick-skinned fruit. They have a peel which comes off easily. Bananas ripen after they have been picked. They are ripe when the skin is yellow and speckled with brown spots. Avoid bananas Banana with brown spots that seem very soft. Bananas are fruit which grow in hanging clusters on plants which look like — but are not — trees. originally came Bananas from the M ns, banan alays any tropical regio as are the fou ian a wn in m rth mos rea in Gro t impo Southea rtant f st Asia. ood crop (after rice, wheat and corn). Bananas are the most popular fruit in the world. They are inexpensive and available year round. NUTRITION FACTS • High calories VARIETIES • Fat free • Cholesterol free The most popular variety of • Sodium free banana, Cavendish, is the familiar yellow type found • High in potassium in most grocery stores. • High in vitamin C Plantains, Finger Bananas • High in vitamin A and Red Bananas are also popular. Plantains need to be cooked before eating. Although some wild USES Bananas are varieties have hard seeds, almost all delicious eaten after peeling bananas people eat off the skin. Enjoy a banana for are seedless. lunch or as a snack. Eat sliced bananas in cereal, yogurt or on a peanut butter sandwich. Banana bread and muffins Bana nas are not grown in Nebraska. are very popular. Primary Source: 5 to 9 a Day for Better Health program at www.5aday.gov and www.cdc.gov/nccdphp/dnpa/5aday • Designed by: in Lancaster • Designed County UNL Extension Vicki Jedlicka, Primary and www.cdc.gov/nccdphp/dnpa/5aday Source: for 9 a Day Better 5 to www.5aday.gov at program Health This institution is an equal opportunity provider and employer. -
Musa Acuminata (Banana, Edible Banana) Size/Shape
musa acuminata (Banana, Edible Banana) Banana is short lived herbaceous plants with large rhizomes. Banana recognized by its large, fleshy, upright stalks topped with soft, smooth, arching leaves. Ranging from 1 m for the dwarf species to over 5-6 m for the largest types, Banana ''trees'' are guaranteed to lend a tropical flavor to any landscape setting. The broad, tender leaves are easily torn by winds and plants should be located in a sheltered area to prevent this. The unusual reddish-purple flowers are followed by clusters of upwardly-pointing green fruit, maturing to a beautiful yellow. After the fruit appears the plant dies back. If we cut the trunk back until the ground new growth will appear. Growing best on fertile, moist soil, Bananas will thrive in full sun or partial shade and should be protected from both wind and cold. Plants respond well to regular fertilization. Many different species of Banana are available. Some ornamental types are grown for foliage or flowers. The best usages for Banana as a specimens or container plant. ' Cavendish' is the best edible variety Landscape Information French Name: Bananier sauvage , Bananier de Chine ﻣﻮﺯ :Arabic Name Pronounciation: MEW-suh ah-kew-min-AY-tuh Plant Type: Tree Origin: Southern Asia, Australia Heat Zones: 7, 8, 9, 10, 11, 12, 13, 14, 15, 16 Hardiness Zones: 8, 9, 10, 11, 12, 13 Uses: Specimen, Border Plant, Container, Edible, Wildlife Size/Shape Growth Rate: Fast Tree Shape: Upright Plant Image Canopy Symmetry: Irregular Canopy Density: Open Canopy Texture: Coarse Height -
DNCRDPSC Technoguide Series 2020 No
No. 01 Series 2020 Support Support Center Bago Davao City Oshiro, Bureau of Plant Industry Industry Plant of Bureau DNCRDPSC Technoguide DNCRDPSC Department of Agriculture Department of Development and Production Davao National Crop Research, Research, Davao National Crop Five-year Estimated Cost & Return of a One-Hectare Cardaba Banana Farm YEA Harves- Gross Estab- Weed- Fertili- Irriga- Sucker Mat Bunch Managing Har- Total Yearly ROI Cumula- Cumula- Cumu- table Income Net (%) tive tive Net lative R Fruits (P) lishment ing zation tion Man- Sanita- Care Pest and vesting Cost per Income Produc- Income ROI (kg) Cost Cost Cost Cost agement tion (P) (P) Diseases (P) hectare (P) tion Cost (P) (%) (P) (P) (P) (P) Cost (P) (P) (P) (P) 1 - - 34,635 2,300 11,950 2,000 800 1,350 - 1,300 - 54,335 -54,335 -100 54,335 -54,335 -100 2 15,625 156,250 - 1,600 27,080 2,400 800 1,200 1,600 2,000 5,475 42,155 114,095 270 96,490 59,760 62 3 30,600 306,000 - 2,300 27,080 2,400 800 1,200 3,200 2.300 9,400 48,680 257,320 528 145,170 317,080 218 4 24,000 240,000 - 1,600 27,080 2,400 800 1,550 3,000 2,000 9,875 48,305 191,695 396 193,475 508,775 263 5 21,168 211,680 - 2,300 27,080 2,400 800 1,200 3,000 2,300 9,000 48,080 163,600 340 241,555 672,375 278 TO- 91,393 913,930 34,635 10,100 120,270 11,600 4,000 6,500 10,800 9,900 33,750 241,555 672,375 278 TAL Assumptions: Plant population per hectare (625 plants); Year 2 - first cycle of harvest (mother plants) with an average weight per bunch of 25 kgs; Year 3 - second and third cycles (ratoons) of harvest with an average weight per bunch of 25 kgs; Year 4 - fourth and fifth cycles of harvests with an average weight per bunch of 20 kgs; Year 5 - sixth and seventh cycles of harvest with an average weight per bunch of 18 kgs; Farm gate price, Php10.00/kg; 2% decrease in number of mats due to virus infection on the 4th to the 5th year. -
Morphological, Physicochemical and Functional Differentiation Between Genetic Groups, Consumption Patterns and Preferences
Characterisation of bananas and cooking bananas cultivated in Colombia: morphological, physicochemical and functional differentiation between genetic groups, consumption patterns and preferences. Dominique Dufour ab†*, Olivier Gibert a†*, Andrès Giraldo b, Teresa Sánchez b, Max Reynes a, Jean-Pierre Pain c, Alonso González b, Alejandro Fernández d, Alberto Diaz d. a Centre de Coopération Internationale en Recherche Agronomique pour le Développement (CIRAD), UMR QUALISUD, 73 Rue Jean-François Breton, TA B-95/15 F-34398 Montpellier, France. b International Centre for Tropical Agriculture (CIAT), Km17 Recta Cali-Palmira, AA6713, Cali, Colombia. c Université Montpellier II (UMII), UMR QUALISUD, Place Eugène Bataillon, F-34090 Montpellier, France. d Universidad del Valle (UNIVALLE), Escuela de Ingeniería de Alimentos, Cuidad Universitaria Melendez, AA25360, Cali, Colombia. *Corresponding authors. † These authors contributed equally to this work. Lecturer: Dufour Dominique Ph.D , Food technologist. Tel.: +(57) 2 4450000 ; fax: +(57) 2 4450073 ; [email protected] ; [email protected] Gibert Olivier Tel.: +(33) 4 67615723; fax: +(33) 4 67614449 ; [email protected] Co-authors : [email protected] ; [email protected] ; [email protected] ; [email protected] ; [email protected] ; [email protected] ; [email protected] Abstract The morphological and physicochemical characteristics of 23 varieties cultivated in Colombia were assessed. The study permitted to describe the phenotypic diversity and the heterogeneity within-bunches and within-hands of 47 plants. A sampling strategy was suggested accordingly. Dry matter content helped to significantly discriminate consumption groups or subgroups of bananas (P ≤ 0.01): FHIA dessert hybrids (24.6%) < dessert bananas (29.4%) < non plantain cooking bananas (32.0%) < FHIA cooking hybrids (34.2%) < plantains (41.1%). -
Article Reference
Article Accounts of injury as misappropriations of race: towards a critical black politics of vulnerability MICHEL, Noemi Vanessa Abstract Across contexts and time, subjects marked by racial difference have expressed public accounts of the multiple injuries of race. From the vantage point of critical race and black theory, this paper sheds light on both the heuristic and critical political values of such accounts. The first part critically reassesses conceptualizations of vulnerability as an ambivalent ontological condition within critical approaches to liberalism. A close reading of Fanon's account of injury in Black Skin, White Masks specifies how race exploits bodily and enunciative vulnerability and materializes subjects into a state of suspension and suspicion. The second part addresses the political promise of accounts of racialized injury. Departing from sceptical readings of “wounded attachment,” critical race and black analyses associate accounts of injury with citational practices that pertain to historically entrenched conventions of resistance to racial and colonial abusive power. Such accounts can be read as misappropriations of race which expand the horizon of the human. Reference MICHEL, Noemi Vanessa. Accounts of injury as misappropriations of race: towards a critical black politics of vulnerability. Critical Horizons, 2016, vol. 17, no. 2, p. 240-259 DOI : 10.1080/14409917.2016.1153895 Available at: http://archive-ouverte.unige.ch/unige:86939 Disclaimer: layout of this document may differ from the published version. 1 -
Summary of the Global Strategy for the Conservation and Use of Musa Genetic Resources
SUMMARY OF THE GLOBAL STRATEGY FOR THE CONSERVATION AND USE OF MUSA GENETIC RESOURCES A consultative document prepared by the Global Musa Genetic Resources Network (MusaNet) October 2016 MusaNet is the Global Network for Musa Genetic Resources, with representatives from various banana research institutes, organizations and networks that support Musa research. MusaNet aims to optimize the conservation and use of Musa genetic resources by coordinating and strengthening such conservation and related research efforts of a worldwide network of public and private sector stakeholders. www.musanet.org MusaNet is coordinated by Bioversity International which is part of the CGIAR Systems Organization - a global research partnership dedicated to reducing rural poverty, increasing food security, improving human health and nutrition, and ensuring more sustainable management of natural resources. www.cgiar.org Bioversity International delivers scientific evidence, management practices and policy options to use and safeguard agricultural and tree biodiversity to attain sustainable global food and nutrition security. www.bioversityinternational.org Acknowledgements The Global Strategy for the Conservation and Use of Musa Genetic Resources is the fruit of collaborative efforts of many organizations and individuals. Grateful appreciation is expressed to the lead authors and co-authors of each chapter. MusaNet would also like to thank all who participated actively in discussions and in the review of the Strategy. See the full acknowledgments at the end of the booklet. This summary booklet of the Global Strategy was compiled by Rachel Chase. The full Global Strategy citation is: MusaNet 2016. Global Strategy for the Conservation and Use of Musa Genetic Resources (B. Laliberté, compiler). Bioversity International, Montpellier, France. -
Yael Laks, Tehila Rothbort. Mentor
Very ApPEELing DNA: DNA Barcodes of Different Types of Bananas Authors: 1Yael Laks, 1Tehila Rothbort. Mentor: 1Shulamith Biderman, 1Ruth Fried 1 Yeshiva University High School for Girls. Funded by the Thompson Family Foundation Abstract: Materials and Methods: Tables and Figures: Discussion: We researched three types of Bananas from the genus Musa. To perform our experiment we bought cavendish bananas, From the results of BLASTN the banana sequences were The goal of our project was to find the differences and lady finger bananas and plantains in a store close to our analyzed. The Cavendish bananas and plantains had identical similarities in the chloroplast DNA of a cavendish banana, school. The cavendish bananas will act as the control matches, meaning they are very closely related. We expected lady finger banana and plantain. Our hypothesis is that the group in our experiment. The lady finger bananas and the these two organisms to be closely related because the top different types of bananas will have many genetic similarities plantains will be the experimental groups. We brought matches had some sort of connection to bananas. Although, because they fall under the same genus, grow in the same them to Yeshiva University High School for Girls and kept we were also expecting lady finger bananas to be as closely way, and have similar peel structures.We predicted there will them there until we started our project. We started related as the others the closest matches were tomatoes and be differences among these species because they differ in isolating the DNA from the plant by collecting seeds from eggplants, which is very unexpected. -
Silicon in Banana Plants: Uptake, Distribution and Interaction with the Disease
Silicon in banana plants: uptake, distribution and interaction with the disease fusarium wilt Kevan Walter Jones Bachelor of Science: Plant Science A thesis submitted for the degree of Doctor of Philosophy at The University of Queensland in 2013 School of Agriculture & Food Sciences Abstract Banana cultivation worldwide is under threat from a wide variety of pathogens and negative environmental factors. Most cultivated banana plants are vegetatively propagated, resulting in a dearth of breeding and a genetic bottleneck. This has led to enhanced susceptibility to a number of lethal plant diseases. Novel solutions are being pursued to enhance the innate defences of the banana plant in an effort to combat these diseases. Of all current banana diseases, Fusarium wilt poses the greatest overall threat. Fusarium wilt, sometimes known as Panama disease, is caused by the soilborne fungus Fusarium oxysporum f. sp. cubense (Foc). A complex grouping of polyphyletic fungal strains, collectively referred to as races, is responsible for causing disease in banana. Race 1 of Foc caused the collapse of the global ‘Gros Michel’ trade industry in the mid-20th century. The industry recovered by substituting ‘Cavendish’ cultivars for ‘Gros Michel’, but a new race (race 4) is now threatening ‘Cavendish’ production. Breeding and transgenics programmes for developing Foc resistant banana cultivars are in progress, but advancement is slow and durable resistance cannot be guaranteed. In the interim, innovative control strategies for Foc are being sought. These strategies involve the development of new cultural controls or soil amendments and are intended to inhibit fungal inoculum in the soil or to upregulate innate plant defences. -
Assessment of Banana Streak MY Virus-Based Infectious Clone Vectors in Musa Ssp. by Mary Nyambeki Onsarigo B. Ed. (Science)
Assessment of banana streak MY virus-based infectious clone vectors in Musa ssp. by Mary Nyambeki Onsarigo B. Ed. (Science) 1996 M. Sc. (Agricultural Biotechnology) 2008 M. Sc. (Bioinformatics) 2010 Centre for Tropical Crops and Biocommodities Science and Engineering Faculty A thesis submitted for the degree of Doctor of Philosophy Queensland University of Technology 2017 Keywords Genotype, GFP, endogenous virus sequences, resistance © 2017 Mary Onsarigo Page i Abstract Banana streak disease, caused by a complex of different banana streak viruses (BSVs), occurs in all banana-producing countries. BSVs are genetically very diverse and can exist both as episomal forms or integrated into the host genome and both can be infectious to banana. Several field studies have assessed the infectivity of one or more BSV species on different banana genotypes with significant differences reported in virus incidence and symptom expression between and within genotypes. These studies used a severity index, based on symptom expression, to determine the resistance/susceptibility levels of the genotypes. Because of the great genetic variability amongst BSV species, symptoms of banana streak disease may vary widely and may be influenced by the cultivar and/or environmental conditions. Also this system of screening does not reflect the level of viral DNA accumulation (i.e. the viral load) within infected plants. Furthermore, there are no reports on the level of BSV DNA accumulation in different banana cultivars or Musa sp. Researchers at QUT had previously developed an infectious clone of one BSV species, Banana streak MY virus (BSMYV). Therefore, this study aimed to investigate the infectivity of the BSMYV infectious clone in a broad range of Musa genotypes and cultivars.