Farm Glossary
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The Progress of the Early Threshing Machine
The Progress of the Early Threshing Machine By STUAR.T MACDONALD HKESHING was as basic to agricul- diffusion from Scottish origins; in many parts ture as agriculture was to the national of England the flail remained the dominant T economy. New crop rotations, better --sometimes fl~e only--means of threslfing manuring, and increased potential arable for the next half-century. "The thrashing of acreage may have produced more grain to be corn is performed in two ways; by manual sold at greater profit in the buoyant grain labour, as with the flail, and by mechanical market of the late eighteenth and early nine- means, as the thraslfing machine. The flail... teenth centuries, but the importance of the is still used in a great part of England to essential linking process--threslfing--seems separate the corn from its straw. ''s The ma- to have escaped comparable attention. Before chine was revolutionary in function com- the z78o's, the most efficient way of separating pared with the flail and in scale compared with grain from straw was to employ teams of men the size and cost of other farm implements. 6 throughout the winter months to hit the corn That such a keystone of revolution should with flails. The work was hard, it was dirty, prove invaluable to some and valueless to inefficient, slow, and at a time of rapid agri- others seems a matter of some interest and cultural change and some agricultural pro- importance and has provoked this enquiry. gress, primitive. Not until I7o°6 was a machine invented capable of relieving arable agricul- I ture from its annual epic drudgery. -
FAMILY FARM the Next Generation
FAMILY FARM The Next Generation © AMERICAN ACADEMY OF ESTATE PLANNING ATTORNEYS, INC. Family Farm: The Next Generation 1 INTRODUCTION A humorous take on how families pass on businesses, such as family farms, is reflected in this quip: Avenge your children; give them equal shares in your business. Certainly, what can seem like a generous, wonderful thing can be rife with conflict and imbalance, if you don’t take steps to implement the appropriate legal framework. Landowners, ranchers, and farmers face unique challenges surrounding how to preserve the family farm; a symbol of their heritage. This report focuses on the legal and management issues of managing the family farm, and steps you can take to ensure the smooth transition from generation to generation with ease and accuracy. PLANNING IS KEY Whether your family is running a farm, managing a large parcel of land, or operating a chain of feed stores, transitions in stock ownership — either through death, retirement, divorce, or just the desire to sell one’s shares — can cause turmoil in the family. But harmony can be maintained, and many difficult family business circumstances can be anticipated and planned for, if everyone agrees in advance how situations will be handled. The key word, however, in this statement is: advance. As with most situations, being prepared ahead of time means the difference between getting it right and seeing it with hindsight. For this purpose there are buy-sell agreements, which are basically contracts that specify certain rights among the owners of a family business. Sometimes a buy-sell agreement is incorporated into a Living Trust, other times it is a separate document. -
Rice, Technology, and History: the Case of China
RICE, TECHNOLOGY, AND HISTORY The Case of China By Francesca Bray Wet-rice farming systems have a logic of technical and economic evolution that is distinctively different from the more familiar Western pattern of agricultural development. The well-documented history of rice farming in China provides an opportunity for students to reassess some commonly held ideas about tech- nical efficiency and sustainable growth. rom 1000 to 1800 CE China was the world’s most populous state and its most powerful and productive economy. Rice farming was the mainstay of this empire. Rice could be grown successfully in only about half of the territory, in the south- F ern provinces where rainfall was abundant. There it was the staple food for all social classes, landlords and peasants, officials and artisans alike. The more arid climate in the north was not suited to rice; northern farmers grew dry-land grains like wheat, millet, and sorghum for local consumption. But the yields of these grains were relatively low, whereas southern rice farming produced sufficient surpluses to sustain government and commerce throughout China. Vast quantities of rice were brought north to provision the capital city— home to the political elite, the imperial court, and all the state ministries—and to feed the huge armies stationed along the northern frontier. People said that the north was like a lazy brother living off the generosity of his hard-working and productive southern sibling. Thou- sands of official barges carried rice from Jiangnan to the capital region along the Grand Canal, and more rice still was transported north in private ships along the coast (fig. -
Pricing Forage in the Field
Pricing Forage in Ag Decision Maker the Field File A1-65 uestions often arise about how to arrive Example 2 at a fair price for standing crops such Qas corn silage, oats, hay, and cornstalks. Silage moisture level 70% Although there are no widely quoted market Silage dry matter level 100% - 70% = 30% prices for these crops, they can be valued Silage value at 65% $28.35 per ton according to their relative feed value and $28.35 x (30 / 35) = compared to other crops that have a known Silage value at 70% market price, such as corn grain or hay. $24.30 per ton Corn Silage The quantity of silage harvested can be estimated Corn silage can be quickly valued according to the by: price of corn grain. Taking into account the value 1. weighing several loads and counting the total of the grain, the extra fertilizer cost incurred and number of loads, the harvesting costs saved, a ton of corn silage in 2. calculating the storage capacity of the silo in the field is usually worth 8-10 times as much as a which it is stored (see AgDM Information File bushel of corn, depending on the potential grain and Decision Tool C6-82, Estimated Storage yield. Silage from a field that would yield above Capacity for Grains, Forages, and Liquids, 200 bushels per acre can be valued at 10 times the www.extension.iastate.edu/agdm/wholefarm/ corn price. But if the potential yield is less than pdf/c6-82.pdf), or 100 bushels per acre, the silage should be valued 3. -
Choices and Constraints in the Pre-Industrial Countryside
Choices and Constraints in the Pre-Industrial Countryside Sheilagh Ogilvie Faculty of Economics, University of Cambridge [email protected] CWPESH no. 1 Plenary Lecture for Population, Economy and Welfare, c. 1200 – 2000: a Conference in Honour of Richard Smith , Cambridge, 16 September 2011 Abstract : This paper explores a key implication of Richard Smith’s work on agrarian societies: the need to be attentive both to rural people’s decisions as economic agents and to the constraints on their choices. It begins by examining evidence of goal- maximizing behaviour by rural people – not just peasant farmers but women, servants, serfs, landless workers, youths, and many others – in a diversity of pre-industrial societies. It then analyses some central constraints within which rural people made their choices: family and inheritance systems, village communities, manorial systems, legal rules and customs, and the actions of rulers. It concludes by discussing the implications of these findings for understanding the functioning of rural economies, now widely recognized as central to long-term improvements in economic growth and human well-being. 1 1. Introduction This paper explores a central implication of Richard Smith’s work on agrarian societies: the need to be attentive both to rural people’s decisions as economic agents and to the constraints on those choices. As early as 1979, Smith pointed out that although people in the pre-modern English countryside made individualistic choices, ‘This does not necessarily require us to approach this society with a purely voluntaristic model of social behaviour for we have to define the structural limits within which people interacted’. -
Making Grass Silage
Making Grass Silage Dr. Dan Undersander University of Wisconsin Fermentation analysis profile Legume Grass Corn Silage Silage Silage Moisture: 65%+ <65% 60-65% pH 4.0-4.3 4.3-4.7 3.8-4.2 Lactic Acid 6.0-8.0 6.0-10.0 5.0-10.0 Acetic Acid 1.0-3.0 1.0-3.0 1.0-3.0 Ethanol (% of DM) <1.0 <1.0 <3.0 Ammonia-N (% of CP) <15.0 <12.0 <8.0 Lactic: Acetic ratio 2+ 2+ 3+ Lactic (% of total acids) 60+ 60+ 70+ Dan Undersander-Agronomy © 2013 High quality grass silage results from: 1. Harvesting high quality forage 2. Inoculation 3. Proper packing 4. Covering Dan Undersander-Agronomy © 2013 Making Good Grass Silage Want 10–15% WSC (sugars) in the dry matter Young, leafy grass that has been well fertilized, grass/clover mixtures and autumn cuts tend to have low sugar levels Buffering capacity is directly related to how much sugar it takes to lower silage pH. Grass typically has a low buffering capacity and an adequate supply of sugars High rates of N increase buffering capacity. Dan Undersander-Agronomy © 2013 Grass Dry Matter Digestibility 80 70 60 Indigestible DM 50 40 Recommended harvest 30 Digestible DM 20 10 0 leaf stage boot stage heading full flower Dan Undersander-Agronomy © 2013 Dan Undersander-Agronomy © 2013 Cool Season Grasses Head only on first Cutting 2nd and later cuttings Harvest 1st cutting at boot stage are primarily leaves Boot stage Heading Dan Undersander-Agronomy © 2013 Mowing, Conditioning Mowing height - 3.5 to 4 inches Promotes rapid grass regrowth Reduces dirt contamination Condition with flail conditioner Make wide -
Fish Processing Wastes Used As Feed Ingredient for Animal Feed and Aquaculture Feed
Journal of Survey in Fisheries Sciences 6(2) 55-64 2020 Fish processing wastes used as feed ingredient for animal feed and aquaculture feed Afreen M.1; Ucak I.1* Received: May 2019 Accepted: July 2019 Abstract: Fish wastes management has become a global problem from the last years. Dispose of seafood wastes cause environmental pollution. To overcome this issue these unwanted seafood products are used for the formation of animal feed and aquaculture feed. These unwanted products include small fish and those parts of fish which are not used as human food. These unwanted parts include viscera, head, fins and skin of fish. These byproducts are rich source of protein, minerals and vitamins so these can be used as a supplement in animal feed. These are also used to fulfill the deficiency of protein in animals. These byproducts can be used in the form of fish meal, fish oil, and protein hydrolysates and fish silage. Protein hydrolysates provide high amount of nitrogen and fish oil provide triglycerides of fatty acids and phospholipids in the animal feed industry. These are also used in the formation of pet feed and in the formation of fertilizers. These byproducts are processed for feeding by using fermentation, biotechnological and bio preservation techniques. Keywords: Seafood, Byproduct, Supplement, Fish silage, Fish oil, Protein hydrolysate. Downloaded from sifisheriessciences.com at 14:03 +0330 on Wednesday October 6th 2021 [ DOI: 10.18331/SFS2020.6.2.7 ] 1-Department of Animal Production and Technologies, Niğde Ömer Halisdemir University, -
1 a Feasibility Assessment of a Meat Slaughtering/Processing Plant Or
THE STRATEGIC MARKETING INSTITUTE WORKING PAPER A Feasibility Assessment of a Meat Slaughtering/Processing Plant or Feedlot in Northern Michigan William A. Knudson and H. Christopher Peterson January 2007 80 AGRICULTURE HALL, MICHIGAN STATE UNIVERSITY, EAST LANSING, MI 1 Table of Contents Page No. Executive Summary 3 Introduction 7 Overview of the Red Meat Industry 8 Economic Feasibility 15 Market Feasibility 23 Technical Feasibility 33 Financial Feasibility 45 Management Feasibility 49 Conclusions and Recommendations 54 References 57 2 Executive Summary Rationale This report is a result of several forces affecting Michigan’s livestock community. The existence of Bovine TB in the Northeastern Lower Peninsula has affected market access for beef producers. There is also increased interest in developing meat products that meet the needs of specialized groups of consumers. Examples of this include growing ethnic markets and markets for food products that promote health. These markets also create the possibility of higher prices for producers and others in the industry. This study analyzes the feasibility of a small meat processing plant in the Northern Lower Peninsula as well as the feasibility of a feedlot in the same area. Funding for the study was provided by the Michigan Department of Agriculture as well as the Michigan Agricultural Experiment Station through the Michigan State University Product Center for Agriculture and Natural Resources. Information was gathered from a wide range of published sources as well as discussions from those familiar with the beef, lamb and goat industries. This feasibility assessment will focus on the following considerations: economic feasibility, market feasibility, technical feasibility, financial feasibility, and management feasibility. -
Safe Use of Wastewater in Agriculture: Good Practice Examples
SAFE USE OF WASTEWATER IN AGRICULTURE: GOOD PRACTICE EXAMPLES Hiroshan Hettiarachchi Reza Ardakanian, Editors SAFE USE OF WASTEWATER IN AGRICULTURE: GOOD PRACTICE EXAMPLES Hiroshan Hettiarachchi Reza Ardakanian, Editors PREFACE Population growth, rapid urbanisation, more water intense consumption patterns and climate change are intensifying the pressure on freshwater resources. The increasing scarcity of water, combined with other factors such as energy and fertilizers, is driving millions of farmers and other entrepreneurs to make use of wastewater. Wastewater reuse is an excellent example that naturally explains the importance of integrated management of water, soil and waste, which we define as the Nexus While the information in this book are generally believed to be true and accurate at the approach. The process begins in the waste sector, but the selection of date of publication, the editors and the publisher cannot accept any legal responsibility for the correct management model can make it relevant and important to any errors or omissions that may be made. The publisher makes no warranty, expressed or the water and soil as well. Over 20 million hectares of land are currently implied, with respect to the material contained herein. known to be irrigated with wastewater. This is interesting, but the The opinions expressed in this book are those of the Case Authors. Their inclusion in this alarming fact is that a greater percentage of this practice is not based book does not imply endorsement by the United Nations University. on any scientific criterion that ensures the “safe use” of wastewater. In order to address the technical, institutional, and policy challenges of safe water reuse, developing countries and countries in transition need clear institutional arrangements and more skilled human resources, United Nations University Institute for Integrated with a sound understanding of the opportunities and potential risks of Management of Material Fluxes and of Resources wastewater use. -
Feedlot Cattle Nutrition – Receiving to Finish
2/17/2017 Feedlot Cattle Nutrition – Receiving to Finish Dan Schaefer Professor Animal Sciences Department Outline • Nutrient requirements • Mineral and vitamin nutrition • Cattle type and market constraints • Growing phase • Starting on feed and step-up • Finishing phase • Energy feeds and diet energy density • Protein feeds • Complementarity among feeds 1 2/17/2017 Nutrition of Growing & Finishing Cattle • “Growing/finishing” – traditional reference to a two- phase feeding program; • phase 1 emphasizes growth of skeleton and muscle; • phase 2 emphasizes diet with higher energy concentration for fattening/finishing DMI and Nutrient Requirements 3 r 2.5 DMI*0.1, lb/d I) o I) 2 M CP*0.1, % 1.5 Ca, % P, % ount (D ount 1 oncentration m C A 0.5 0 700 800 900 1000 1100 Body Weight, lbs As body weight increases … DMI and nutrient reqts based on animal that • DMI/day increases is 1300 lbs at 28% • Crude protein reqt decreases body fat, eating diet of • Calcium reqt decreases 61 Mcal NEg/cwt, and • Phosphorus reqt decreases gaining 3.99 lb/day 2 2/17/2017 DMI and Nutrient Requirements at 845 lbs 5 r 4 DMI*0.1, lb/d ADG, lb/d 3 CP*0.1, % 2 Ca, % Concentration 1 P, % Amount (DMI)Amount o lb 0 0.10.20.30.40.50.60.70.8 NEgain, Mcal/cwt diet DMI and nutrient As “net energy” concentration in diet increases … reqts based on • ADG increases animal that would • CP, Ca and P reqts increase attain 28% body fat at 1300 lbs Nutrients of Interest for Diet Formulation • Steers and heifers – energy (NEgain), protein, calcium, phosphorus, potassium, sulfur, sodium and vitamin A Nutrient Requirements NEgain, CP, Ca, P, K, S, Na, Vit A, Mcal/cwt % % % % % % IU Grower 56 14 0.6 0.3 1,000/lb 0.6 0.15 .08 Finisher 62 11 0.4 0.2 DMI Max 0.3-0.5 3 2/17/2017 Nutrients of Interest – Sources • Calcium • Legumes, Limestone • Phosphorus • Potassium • Silage or hay, KCl •Sulfur • Sodium • Salt, 0.2% of diet DM • Vitamin A • Retinyl acetate Cattle Type and Market Constraints • A reasonable thumb rule is that the weight of finished steers is the same as the weight of their mature dams. -
Silo Buster Forage Mixture Silo Buster Is a Forage Mixture Comprised of 50% Climbing Forage Peas, 25% Spring Triticale and 25% Forage Barley
Silo Buster Forage Mixture Silo Buster is a forage mixture comprised of 50% Climbing Forage Peas, 25% Spring Triticale and 25% Forage Barley. Preparation Prepare a smooth seed bed to ease accurate seeding. Avoid surface trash unless proper no till seeding is used with appropriate equipment and an experienced operator. Planting Sow 2-2 ½ units per acre, ½ - 1” depth. Do not seed deeper than 1’ and sow as early as possible in the spring. The later part of April is ideal. Underseed with your normal hay or grass mix at the usual rate. For the proper amount of seed per acre start by setting the drill as if you were planting 120 lbs. of wheat. Feed quality and yield will suffer if less than 100 lbs./acre are planted. Fertilizer requirements are approximately 60 lbs. N, 30 lbs. P, and 60 lbs. K in the absence of a soil test. Silo Buster really comes into its own when its values as a nurse crop are examined. After quick emergence, Silo Buster develops more slowly than most nurse crops, allowing the underseeding to develop strong vigorous seedlings. When harvest is about three weeks away, Silo Buster grows very rapidly resulting in lots of high quality feed (approximately 7-9 ½ tonnes wet weight per acre). The peas in the mixture provide large amounts of nitrogen through heavy nodulation, if sufficient climbing pea inoculant is mixed with the seed. Harvest Harvest 55-70 days (depending on your area) from seeding but weather can accelerate or delay harvest. Remember the calendar is only a guide. -
Delivering on Net Zero: Scottish Agriculture
i Delivering on Net Zero: Scottish Agriculture A report for WWF Scotland from the Organic Policy, Business and Research Consultancy Authors: Nic Lampkin, Laurence Smith, Katrin Padel NOVEMBER 2019 ii Contents Executive summary............................................................................................................................................ iii 1 Introduction ............................................................................................................................................... 1 2 Portfolio of mitigation measures ............................................................................................................... 3 2.1 Introduction ....................................................................................................................................... 3 2.2 Measuring greenhouse gas emissions and global warming potential .............................................. 3 2.3 Emission reduction measures to be analysed ................................................................................... 5 A. Improved nitrogen fertiliser use ............................................................................................................... 5 2.3.1 M1 (E1, FBC): Improving synthetic N utilisation ........................................................................ 5 2.3.2 M2 (E6): Controlled release fertilisers (CRF) ............................................................................. 6 2.3.3 M3 (E10): Precision applications to crops ................................................................................