The U.S. Oats Industry (AER-573)
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Industrial Hemp for Flower Production a Guide to Basic Production Techniques Hemp Is a Non-Psychoactive Variety of Cannabis Sativa L
Industrial Hemp for Flower Production A Guide to Basic Production Techniques Hemp is a non-psychoactive variety of Cannabis sativa L. The crop is one of historical importance in the U.S. and re-emerging worldwide importance as manufacturers seek hemp as a renewable and sustainable resource for a wide variety of consumer and industrial products. Hemp can be grown for flower, fiber, and/or grain. For years, U.S. entrepreneurs have been importing hemp from China, Eastern Europe and Canada to manufacture travel gear, apparel and accessories, body care and cosmetics, foods like bread, beer, and salad oils, paper products, building materials and animal bedding, textiles, auto parts, housewares, and sporting equipment. Industrial hemp is poised to be a “new” cash crop and market opportunity for Vermont farms that is versatile and suitable as a rotation crop with other specialty crops, small grains, and grasses. Hemp grown for all types of end-use contains less than 0.3% tetrahydrocannabinol (THC). Hemp varieties intended to produce a health supplement contain relatively high concentrations of a compound called cannabidiol (CBD), potentially 10-15%. Cannabidiol is just one of over 100 cannabinoids found in hemp. Cannabidiol has purported benefits such as relief from inflammation, pain, anxiety, seizures, spasms, and other conditions. In addition to the vast number of cannabinoids, plants are known to produce over 400 other secondary compounds including terpenes, which have other purported health benefits and contribute to plant aromatics. The CBD is most concentrated in the female flower buds of the plant; however, it is also in the leaves and other plant parts as well. -
Plant-Based Recipes
A collection of 100% PLANT-BASED RECIPES Breakfasts and smoothies p.02 Starters p.05 Mains p.06 Sweet treats p.12 Break- fasts and smooth- ies: Overnight Oats with Shiro Miso serves 1 The miso gives these oats their pleasant ‘umami’ taste (the ‘new’ fifth taste sensation). If you need to eat breakfast away from home, make this in an empty jam jar, and give your taste buds a treat! Nutrition Information: (Approximate nutrition information per serving with fresh fruit/ berries, nuts and maple syrup) Energy (kcals) 349 Fat (g) 12.6 Saturates (g) 1.3 Carbs (g) 47.1 Sugar (g) 5.5 Fibre (g) 6.7 Protein (g) 8.5 INGREDIENTS: METHOD: ½ cup (45 g) of porridge oats ¾ cup (180 mls) of Oatly Oat Drink 1. Mix all of the ingredients except the (preferably Whole/Barista Edition) topping in a bowl (or jam jar), cover and ½ tbsp white Shiro Miso paste leave in ‘fridge for at least 3 hours, but ideally overnight. Topping - your choice from maple 2. Remove from the ‘fridge and, if you syrup, fresh fruit/berries and wish, add more oat drink, until you get roasted nuts the desired consistency. 3. Top with your chosen toppings and enjoy! 02 Avocado & Strawberry smoothie INGREDIENTS: serves 2 This creamy smoothie is quick to make 300 ml Oatly Oat Drink and refreshing at any time of day. 150 g frozen strawberries ½ ripe avocado, peeled Nutrition Information: Juice of ½ lemon (Approximate nutrition information per serving) 1 tbsp maple or agave syrup 2 tsp chia seeds Energy (kcals) 182 Fat (g) 7.8 Saturates (g) 1.1 Carbs (g) 23.9 METHOD: Sugar (g) 13.6 Fibre (g) 4.9 1. -
Torrefaction of Oat Straw to Use As Solid Biofuel, an Additive to Organic Fertilizers for Agriculture Purposes and Activated Carbon – TGA Analysis, Kinetics
E3S Web of Conferences 154, 02004 (2020) https://doi.org/10.1051/e3sconf/202015402004 ICoRES 2019 Torrefaction of oat straw to use as solid biofuel, an additive to organic fertilizers for agriculture purposes and activated carbon – TGA analysis, kinetics Szymon Szufa1, Maciej Dzikuć2 ,Łukasz Adrian3, Piotr Piersa4, Zdzisława Romanowska- Duda5, Wiktoria Lewandowska 6, Marta Marcza7, Artur Błaszczuk8, Arkadiusz Piwowar9 1 Lodz University of Technology, Faculty of Process and Environmental Engineering, Wolczanska 213, 90-924 Lodz,, Poland, [email protected] 2 University of Zielona Góra, Faculty of Economics and Management, ul. Licealna 9, 65-246 Zielona Góra, Poland, [email protected] 3 University of Kardynal Stefan Wyszyński, Faculty of Biology and Environmental Science, Dewajtis 5, 01-815 Warszawa, Poland, [email protected] 4 Lodz University of Technology, Faculty of Process and Environmental Engineering, Wolczanska 213, 90-924 Lodz,, Poland, [email protected] 5 Laboratory of Plant Ecophysiology, Faculty of Biology and Environmental Protection, University of Lodz, Banacha str. 12/16, 90-131 Łódź, Poland, [email protected] 6 University of Lodz, Chemical Faculty, Tamka 13, 91-403 Łódź, Poland, [email protected] 7 AGH University of Science and Technology, Faculty of Energy and Fuels, al. Mickiewicza 30, 30- 059 Krakow, Poland, [email protected] 8 Czestochowa University of Technology, Institute of Advanced Energy Technologies, Dabrowskiego 73, 42-200, Czestochowa, Poland, [email protected] 9 Wroclaw University of Economics, Faculty of Engineering and Economics, Komandorska 118/120 , 53-345 Wrocław, Poland, [email protected] Abstract. -
Expanding the Production of Oats and Small Grains in Iowa and Minnesota Prepared by the Sustainable Food Lab and Practical Farmers of Iowa 4/27/15
Expanding the production of oats and small grains in Iowa and Minnesota Prepared by the Sustainable Food Lab and Practical Farmers of Iowa 4/27/15 Introduction Iowa is ranked 1st in the nation in corn and soybean production and Minnesota is ranked 4th in corn and 3rd in soybean production. Corn and soybeans are by far the most dominant crops in these landscapes, farmed by some of the most sophisticated farmers on some of the best soils in the world. The system optimizes for production of corn and soybeans to the exclusion of almost all other crops. The productivity of these systems and the infrastructure (support services, product development, and policy) that has grown to support these systems have been designed for efficiency in the production of these crops at the exclusion of diversity. While the system itself is a marvel, the loss of farming with a third or fourth crop in rotation has resulted in unintended consequences, including insufficient crop diversity to enhance soil quality, and a decline in the supply of small grains (oats, wheat, rye, barley) in a region that is home to some of the largest processors of small grains in the country. Commercial Rationale Supply Oats, once one the most popular crops grown in the Upper Midwest, have been declining in production for years as a system and markets have been developed to optimize the production of corn and soybeans. U.S. farmers planted 3.03 million acres of oats in 2014, down from 23.3 million in 1968. Growing corn and soy instead of oats is also contributing to a decline in oat production in Canada, one of the world’s largest net exporters of oats, and a key source of supply for the US. -
Processing, Nutritional Composition and Health Benefits of Finger Millet
a OSSN 0101-2061 (Print) Food Science and Technology OSSN 1678-457X (Dnline) DDO: https://doi.org/10.1590/fst.25017 Processing, nutritional composition and health benefits of finger millet in sub-saharan Africa Shonisani Eugenia RAMASHOA1*, Tonna Ashim ANYASO1, Eastonce Tend GWATA2, Stephen MEDDDWS-TAYLDR3, Afam Osrael Dbiefuna JODEANO1 Abstract Finger millet (Eleusine coracana) also known as tamba, is a staple cereal grain in some parts of the world with low income population. The grain is characterized by variations in colour (brown, white and light brown cultivars); high concentration of carbohydrates, dietary fibre, phytochemicals and essential amino acids; presence of essential minerals; as well as a gluten-free status. Finger millet (FM) in terms of nutritional composition, ranks higher than other cereal grains, though the grain is extremely neglected and widely underutilized. Nutritional configuration of FM contributes to reduced risk of diabetes mellitus, high blood pressure and gastro-intestinal tract disorder when absorbed in the body. Utilization of the grain therefore involves traditional and other processing methods such as soaking, malting, cooking, fermentation, popping and radiation. These processes are utilised to improve the dietetic and sensory properties of FM and equally assist in the reduction of anti-nutritional and inhibitory activities of phenols, phytic acids and tannins. However, with little research and innovation on FM as compared to conventional cereals, there is the need for further studies on processing methods, nutritional composition, health benefits and valorization with a view to commercialization of FM grains. Keywords: finger millet; nutritional composition; gluten-free; antioxidant properties; traditional processing; value-added products. Practical Application: Effects of processing on nutritional composition, health benefits and valorization of finger millet grains. -
Ornamental Grasses for Kentucky Landscapes Lenore J
HO-79 Ornamental Grasses for Kentucky Landscapes Lenore J. Nash, Mary L. Witt, Linda Tapp, and A. J. Powell Jr. any ornamental grasses are available for use in resi- Grasses can be purchased in containers or bare-root Mdential and commercial landscapes and gardens. This (without soil). If you purchase plants from a mail-order publication will help you select grasses that fit different nursery, they will be shipped bare-root. Some plants may landscape needs and grasses that are hardy in Kentucky not bloom until the second season, so buying a larger plant (USDA Zone 6). Grasses are selected for their attractive foli- with an established root system is a good idea if you want age, distinctive form, and/or showy flowers and seedheads. landscape value the first year. If you order from a mail- All but one of the grasses mentioned in this publication are order nursery, plants will be shipped in spring with limited perennial types (see Glossary). shipping in summer and fall. Grasses can be used as ground covers, specimen plants, in or near water, perennial borders, rock gardens, or natu- Planting ralized areas. Annual grasses and many perennial grasses When: The best time to plant grasses is spring, so they have attractive flowers and seedheads and are suitable for will be established by the time hot summer months arrive. fresh and dried arrangements. Container-grown grasses can be planted during the sum- mer as long as adequate moisture is supplied. Cool-season Selecting and Buying grasses can be planted in early fall, but plenty of mulch Select a grass that is right for your climate. -
Palm Oil - Economics of the Driver of Global Vegetable Oil Markets
Palm Oil - Economics of the driver of global vegetable oil markets Dessy Anggraeni, Yelto Zimmer Thünen-Institut of Farm Economics Pageagri 0 benchmark Dessy Global Anggraeni Forum , Yelto Zimmer st Des Moines, 21Palm August Oil – 2014 Economics of the driver of global vegetable oil markets Why this study? (1) Demand for vegetable oil is growing fast (2) Many people wonder about palm oil (3) Therefore we wonder about: a) How are markets connected? b) How competitive is palm oil compared to soybean oil? c) What are the main drivers? Page 1 Dessy Anggraeni, Yelto Zimmer Palm Oil – Economics of the driver of global vegetable oil markets Contents Part 1. Overview of global vegetable oil market Part 2. Palm oil production system Part 3. Economics of palm and soybean oil production Page 2 Dessy Anggraeni, Yelto Zimmer Palm Oil – Economics of the driver of global vegetable oil markets 1. Overview of global vegetable oil markets Vorname Nachname Thünen-Institut für XXX PageOrt 3 Dessy Anggraeni, Yelto Zimmer Datum Palm Oil – Economics of the driver of global vegetable oil markets Breakdown of vegetable oil production (2002 vs. 2012) 2002 2012 Palm Oil Other Oil Other Oil Palm Oil 27% 30% 27% 32% Rapeseed Rapeseed Soybean Oil Oil Soybean Oil 15% 13% Oil 30% 26% Palm oil in a fast growing market outperforms all other vegetable oils Source: FAOSTAT Page 4 Dessy Anggraeni, Yelto Zimmer Palm Oil – Economics of the driver of global vegetable oil markets Main palm oil exporters (2008 – 2012) 45.000 40.000 35.000 30.000 25.000 20.000 in 1000 tons tons -
SB661 a Glossary of Agriculture, Environment, and Sustainable
This publication from the Kansas State University Agricultural Experiment Station and Cooperative Extension Service has been archived. Current information is available from http://www.ksre.ksu.edu. A Glossary of Agriculture, Environment, and Sustainable Development Bulletin 661 Agricultural Experiment Station, Kansas State University Marc Johnson, Director This publication from the Kansas State University Agricultural Experiment Station and Cooperative Extension Service has been archived. Current information is available from http://www.ksre.ksu.edu. A GLOSSARY OF AGRICULTURE, ENVIRONMENT, AND SUSTAINABLE DEVELOPMENT1 R. Scott Frey2 ABSTRACT This glossary contains general definitions of over 500 terms related to agricultural production, the environment, and sustainable develop- ment. Terms were chosen to increase awareness of major issues for the nonspecialist and were drawn from various social and natural science disciplines, including ecology, biology, epidemiology, chemistry, sociol- ogy, economics, anthropology, philosophy, and public health. 1 Contribution 96-262-B from the Kansas Agricultural Experiment Station. 2 Professor of Sociology, Department of Sociology, Anthropology, and Social Work, Kansas State University, Manhattan, KS 66506-4003. 1 This publication from the Kansas State University Agricultural Experiment Station and Cooperative Extension Service has been archived. Current information is available from http://www.ksre.ksu.edu. PREFACE Agricultural production has increased dramatically in the United States and elsewhere in the past 50 years as agricultural practices have evolved. But this success has been costly: water pollution, soil depletion, and a host of human (and nonhuman) health and safety problems have emerged as impor- tant side effects associated with modern agricultural practices. Because of increased concern with these costs, an alternative view of agricultural production has arisen that has come to be known as sustain- able agriculture. -
World Demand, Future Risk and Where Food Use Is Going Global Food Demand
World Demand, future risk and where food use is going Global Food Demand • To meet global food demand in 2050, agricultural production must be 60 percent higher by weight than in 2005. Alexandratos and Bruinsma, 2012 Global Food Demand • Increases in food demand are due to: – population growth, – changes in diets, – higher incomes – and urbanization Global Food Demand • Global agricultural production for commodities in major commodities is projected to grow at 1.5% annually, on average, compared to 2.1% in the previous decade. • Overall demand for agricultural products (including food, feed, fibre and biofuels) is expected to increase 1.1 percent per year from 2005/07 to 2050, down from 2.2 percent per year in the past four decades. Cereals and Oilseed Increases – World cereals production must increase by 940 million tonnes to reach 3 billion tonnes; – meat production must increase by 196 million tonnes to reach 455 million tonnes; – and oilseed crops by must increase by 133 million tonnes to reach 282 million tonnes. Canada Share of Global Food Demand If the increases are realized – Canadian cereals production would need to increase 28.2 MMT by 2050; – Canadian oilseed production by 5.87 MMT Population • The world population, is forecasted to increase 32% Population • Asia will remain the world’s most populous region in the 21st century, but Africa will gain ground • The world population is expected to rise throughout the 21st century, although this growth is projected to decelerate markedly in 2050 to 2100. Dietary Change • Sugar, fat, and animal product consumption are increasing in almost all regions of the world Dietary Change • Food consumption is increasing on a global scale—from 2,250 calories per person per day in 1961 to 2,750 calories in 2007 to a projected 3,070 calories by 2050 • Despite increased consumption, South Asia and sub-Saharan Africa will continue to have the lowest daily food caloric intake per capita. -
Mississippi Wheat and Oat Variety Trials 2019
MISSISSIPPI WHEAT & OAT VARIETY TRIALS, 2019 Information Bulletin 540 • August 2019 MISSISSIPPI’S OFFICIAL VARIETY TRIALS TECHNICAL ADVISORY COMMITTEE Erick Larson, Chairman Keith Daniels MSU Extension Service Superintendent Grain Crops Specialist MAFES Research Centers Plant and Soil Sciences Mississippi State University Mississippi State University Darrin Dodds Tom Allen Department Head Plant Pathologist Plant and Soil Sciences Delta Research and Extension Center Mississippi State University Stoneville, Mississippi Josh White John Blanton Manager, Forage Variety Testing Interim Associate Director, MAFES Plant and Soil Sciences Mississippi State University Mississippi State University Wes Burger Associate Director, MAFES Mississippi State University NOTICE TO USER This Mississippi Agricultural and Forestry Experiment Station Information Bulletin is a summary of research conducted at locations shown on the map on the second page. It is intended for the use of colleagues, cooperators, and sponsors. The interpretation of data presented herein may change after additional experimentation. Information included herein is not to be construed either as a recommendation for use or as an endorsement of a specific variety or product by Mississippi State University or the Mississippi Agricultural and Forestry Experiment Station. This report contains data generated as part of the Mississippi Agricultural and Forestry Experiment Station research program. Joint sponsorship by the organizations listed on pages 4-5 is gratefully acknowledged. Trade names -
Oat Protein: Health Benefits and Product Applications
OAT PROTEIN: HEALTH BENEFITS AND PRODUCT APPLICATIONS Innovating to Meet Nutrition, Health, and Wellness Needs Every Day To learn more about Tate & Lyle ingredients and innovations, please visit www.foodnutritionknowledge.info and www.tateandlyle.com. MAKING FOOD EXTRAORDINARY PROTEIN INTAKE RECOMMENDATIONS AND NEEDS Protein as a macronutrient has increased in developing Protein is required to meet countries, the consumption of protein in these countries remains nutritional needs and to support 5 health and well-being.1 This inadequate. Additionally, the macronutrient is needed to meet protein consumed is generally low human nitrogen requirements and quality, lacking some of the amino acids required for proper growth provide indispensable amino acids 5 (also known as essential amino and development. acids). Amino acids are classified Not every protein source provides as those that cannot be synthesised all of the amino acids needed for by the body (indispensable or growth and development, and not essential) and those that the body all protein is equally bioavailable can synthesise (dispensable or from food sources; however, nonessential).2 However, some are bioavailability can change with • Dietary protein plays essential also conditionally indispensable, food processing.6-8 roles in the body, both structurally becoming essential under specific (muscle and bone) and functionally pathological or physiological Protein quality 2 (biochemical processes, conditions. Protein is an important Protein digestibility, a component structural and functional -
Pastures and Cash Crops: Biomass Flows in the Socio-Metabolic Transition of Twentieth-Century Colombian Agriculture
sustainability Article Pastures and Cash Crops: Biomass Flows in the Socio-Metabolic Transition of Twentieth-Century Colombian Agriculture Alexander Urrego-Mesa 1,* , Juan Infante-Amate 2 and Enric Tello 1 1 Department of Economic History, Institutions, Policy and World Economy, University of Barcelona, 08034Barcelona, Spain; [email protected] 2 Agro-ecosystems History Laboratory, Pablo de Olavide University, 41013Sevilla, Spain; [email protected] * Correspondence: [email protected]; Tel.: +34-934021931 Received: 13 November 2018; Accepted: 20 December 2018; Published: 26 December 2018 Abstract: This article aims to situate a national case study of the global periphery at the core of the debate on the socio-ecological transition by drawing on new data of biomass flows in twentieth-century Colombia. We draw up a century-long annual series converting a wide set of indicators from Net Primary Production (NPP) into the final socioeconomic uses of biomass, distinguishing around 200 different categories of crops, forests, and pastures. Our calculations draw on FAOSTAT and several corpuses of national statistics. The results show a fall of 10% in total NPP related to land-use changes involving forest conversion. Throughout the twentieth century, pasture was the most relevant among domestic extraction. Allocations of cash crops to industrial processing rose while the figure for staple crops for primary food consumption stagnated. The critical role of cattle throughout all periods and the higher yields of the industrial cash crops are behind this profile. This might also mean the start of a new trend of using pasture land for more profitable export crops, which establishes a new inner frontier of land-use intensification.