...enewable Energy technologies (RET) are amenable to adoption at different scales viz. a few hundred Megawatts to a few kilowatts and can be matched with end use requirements enabling their decentralized deployment. They can help promote sustainable development through increased opportunities for local employment, particularly the rural people and environmental improvement through reduced GHG emissions. Primary biomass combustion has been the main source of energy for India. According to the Integrated Energy Policy Report (2006), about 80 mtoe is currently used in the rural households. The Ministry of New and Renewable energy has estimated state-wise gross and net availability of agro residue for power generation through Biomass Resource Atlas. Projects based on both biomass combustion and biomass gasification technologies are promoted by the Ministry. Biomass based renewable energy has the potential to be at the forefront in India with the large amount of varied kinds of feedstock available, especially agricultural residues. Such projects will be sustainable with a viable business model. The lessons learnt from DESI Power project has been included in this issue. The recently launched Renewable Global Status Report 2009 is also featured here, which offers an optimistic picture about the global renewable energy industry, including the biomass sector and especially covers India’s Remote Village Electrification program that has been successful and continues to progress ...
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...English 101 Linda Martin Research Paper Jordan Hartt November 29, 2010 Slash/Burn and Chips An argument for Biomass Co-Generation Biomass co-generation is the historically proved approach to energy production. For thousands of years, the Plains Indians (then early settlers) used buffalo chips to build fires to heat their tepees (and sod huts). This was probably the first use of biomass energy in America. Early settlers learned from the Indians to heat their sod huts. After the buffalo became extinct, cow chips were used. On the plains there weren’t many trees and coal had not been discovered there, so this was a matter of survival (Whyte n.d.). Once the chips were dried in the sun they were almost odorless, and placed outside the tepees and sod huts. Western pioneers would modify their stoves to burn cow chips as they were plentiful along the cattle drive trails where the cattle were brought to the railroad cars for sale, and transporting to other areas. They compacted hay and then twisted it into twig-like bundles called cats. When the settlers started farming on the plains, they used corn stalks, corn cobs, and sunflower stalks as a source of fuel. In the United States, the first facility identified as a biomass power plant went on line in 1982. Using corn residues, rice husks, soy beans and sorghum residues, willows, switch grass, and organic waste from land fills as fuel, we could provide enough energy for all the homes in New England (Whyte n.d.). I...
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...Bioenergy Crops for Illinois As everyone knows, fossil fuel is a finite resource and is the accused culprit of global warming after the industrial revolution. Yet, economic development has a strong correlation with energy consumption. Consequently, seeking and developing alternative energy resources is required to maintain our high quality lifestyles. Although food-based biofuel is a relevant mature technology and lessens our reliance on fossil fuel, it has resulted in soaring food prices. In order to decrease food versus fuel concerns and satisfy the increasing need of energy consumption, developing advanced biofuel (e.g., cellulosic ethanol, biodiesel) is pivotal. The current U.S. Renewable Fuel Standards (RFS2) set up the goal of using 21 billion gallons of advanced biofuels as a transportation fuel by 2022. In 2010, the U.S. Department of Agriculture (USDA) developed a regional strategy to meet the RFS2 mandate. In this report, Central-Eastern, one of the most potential regions, was expected to produce up to 9.1 billion gallons of advanced biofuel, which is near a half of the total mandate volume by 2022. Besides, it also suggests that the possible feedstock could be perennial grasses, biomass sorghum, crop residues, soybeans, and woody biomass. Therefore, the State of Illinois, in this area and known for its great agricultural productivity, should carefully consider which bioenergy cropping system is capable of meeting the mandate and more sustainable to the environment...
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...Bioenergy Technology Development in Nigeria – Pathway to Sustainable Development TERM PAPER SUBMITTED BY ATTABO, AMEH M.Engr Mechnical Engineering Covenant university ota Nigeria ABSTRACT A major factor affecting Nigeria’s economical progress is power. And this has been a major discuss in the country for a long time. A reliable and sustainable energy source is greatly desired to power the nation’s economy and this need cannot be overemphasized, due to the epileptic power supply to the national grid, it has become absolutely important to explore other cheap sources of power to meet our urban and rural energy need. This will in no small measure support our national grid and reduce rural-urban drift. The heavy dependence on gas generated by the Nigeria National Petroleum Co-operation (NNPC) to power our turbines at our gas plants often exposes the country to power outage due to high cost of maintenance and vandalism. Applying biomass technology to generate power can help the country develop its energy sector more rapidly as the raw material needed to feed the Bioenergy plants are almost everywhere in the country some are mere waste such as agricultural and domestic waste. The focus of this paper is on the use of bioenergy to alleviate the poverty rate in Nigeria especially in the rural areas where there is large amount of Lands and biomass material. Developing the bioenergy strength of the country also creates wealth and employment...
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...of billions of dollars annually committed to agricultural and food policies” (18). Now the controversy and social problems—as seen by each side—are introduced. The Farm bill is responsible for funding numerous food related programs, such as subsidies, the food stamp program, and also the farmer’s safety net, to name just a few. Where this money goes and how it is spent reflects what the United States values, and what it is defining as a social problem. Some supporters of this bill maintain that this bill provides financial security not only to agriculturalists but also to consumers as well. They believe that this bill promotes an increased emphasis on of conservation, and that it also encourages efforts to explore the merits of bioenergy. The value placed on conservation, cleaner, more efficient energy sources, and the financial protection of American citizens is paramount to most supporters of the 2007 Farm Bill. Proponents also argue that the bill is necessary for a country to provide a financial safety net for the men and women that are providing food for this country. Other supporters maintain that this single bill is crucial to preserving our forestry, wildlife, and farm lands. Meanwhile, groups against the legislation argue that what is...
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...ORNL/TM-1999/264 Environmental Sciences Division Bamboo: an overlooked biomass resource? J. M. O. Scurlock Environmental Sciences Division Oak Ridge National Laboratory P.O. Box 2008 Oak Ridge, TN 37831-6407 U.S.A. D. C. Dayton and B. Hames National Renewable Energy Laboratory 1617 Cole Boulevard, MS 3311 Golden, CO 80401 U.S.A. Environmental Sciences Division Publication No. 4963 Date Published: January 2000 Prepared for the U.S. DEPARTMENT OF ENERGY Office of Transportation Technologies EB 52 03 00 0 and Office of Utility Technologies EB 24 04 00 0 Prepared by the OAK RIDGE NATIONAL LABORATORY Oak Ridge, Tennessee 37831-6422 managed by LOCKHEED MARTIN ENERGY RESEARCH CORP. for the U.S. DEPARTMENT OF ENERGY under contract DE-AC05-96OR22464 Contents Page Figures . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . iv Tables . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . v Abstract . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . vii 1. Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1 2. What Is Bamboo? . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . ....
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...Analysis of Cross-sectoral Networks in Local Sustainable Development Projects in Japan Noriko Sakamoto Submitted in fulfilment of the requirements of the International Masters in Environmental Sciences, Lund University, Sweden November 2005 Submitted by: Noriko Sakamoto 4-41-4-805 Arakawa, Arakawa-ku, Tokyo, Japan, 116-0002 Phone: 81-3-3893-5171 Email: noriko.sakamoto.755@student.lu.se Supervisor: Dr. Tomas Kåberger TallOil Phone: 0853524723 Email: tomas.kaberger@talloil.se Mr. Kes McCormick International Institute for Industrial Environmental Economics (IIIEE) at Lund University Phone: 0462220256 Email: kes.mccormick@iiiee.lu.se Acknowledgement First of all, I would like to express my gratitude to my supervisors, Tomas Kåberger and Kes McCormick, for their continuous advice, support and encouragement throughout this thesis work. Without their support, I could not finish writing this paper. Next, I would particularly like to thank my interviewees, Ayako Fujii, Minoru Yamada, Yasuhito Endo, and Hiroshi Shimotenma for warm hospitality. They gave me inspirations for this thesis, and their energy gave me courage to finish this work. I would like to express my gratitude to LUMES program for offering me an opportunity to study environmental sciences, continuous support, and wonderful classmates. Special thanks to all of my classmates, Becky, Cynthia, Eda, Leah, everyone, for sharing laughs and tears, from hard time of thesis writing to wonderful party time. To Kerstin...
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...form fertilizers and pesticides and threaten the biodiversity these lands. There are two major classes of biomass for biofuel production, monoculture crops and waste biomass. In the reviewed paper an experiment was performed on agriculturally degraded soil. 152 plots are planted containing various combinations of perennial herbaceous species. All plots were unfertilized and grown with low inputs. Biofuel production can be established in different ways which result in a different bioenergy. The conversion from low input high diversity(LIHD) biomass into gasoline and diesel synfuels and electricity via gasification and combined cycle technology with Fischers-Tropisch hydrocarbon synthesis ( IGCC-FT ) is the efficient one. An estimated 28.4 GJ ha-1. Due to this process 51% more usable energy is generated than corn grain ethanol form fertile soils. This higher energy gain results from the low energy inputs in the LIHD biomass production. There was no treatment of the crops. 200% higher bioenergy yield is associated with the high biodiversity of the crops. And more biomass is used during the production of biofuels. Not only the seeds are used but aboveground...
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...Geoengineering for Atmospheric Restoration ROBERT B. JACKSON JAMES SALZMAN A few decades ago, the notion of actively controlling Earth’s climate resided primarily in the writings of science fiction authors such as Frank Herbert, Isaac Asimov, and Arthur C. Clarke. Today, planetary engineering is being discussed openly by scientists and policymakers in Congress, the UK House of Commons, and many other settings. Clarke’s advice apparently struck a chord: “Politicians should read science fiction, not westerns and detective stories.” Geoengineering can be thought of as intentionally manipulating Earth’s climate to offset the warming from greenhouse gas emissions. Its activities can be divided into two loose groups. One set of options cools Earth by removing carbon dioxide (CO2) and other greenhouse gases from air, essentially reversing the process of fossil fuel emissions. The other cools the planet by blocking or reflecting sunlight, offsetting the consequences of increased greenhouse gases for temperature but leaving the buildup of greenhouse gas concentrations unchecked. Several developments have fueled the rise of geoengineering from fiction to possible reality in a remarkably short period of time. The first is our inability to reduce greenhouse gas emissions in any substantive way. A wealth of scientific evidence shows that Earth’s climate is already changing because of such gases, posing a threat to people and other animals and to plants. A second factor is the concern...
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...Energy sources are used as fuels. Fuel is burned in machinery to create motion that we use in our cars or heat in a home energy system. When fuels are used for producing electricity, heat or motion causes a generator to rotate, creating electricity for everyday use in homes and businesses. Energy sources can be classified into two types: nonrenewable and renewable. Nonrenewable resources, such as fossil fuels and nuclear material. Fossil fuels were formed from the fossilized remains of tiny plants and animals that lived long ago. Most electricity used in the world is generated from power plants that burn fossil fuels to heat water and make steam. The highly pressurized steam is directed at turbine blades to make them spin. Nonrenewable resources cannot be replenished. We have limited supplies of them, and when these supplies are gone we will not have any more. These resources have been the most used type of energy in the modern era. Renewable resources, such as wind, water, solar, and geothermal, come from sources that regenerate as fast as they are consumed and are continuously available. Renewable energy resources can be replenished in a short period of time, so they will never be all used up. Some, such as biofuel produced from food crops and other plants, are replenished every growing season. In the early part of the twenty-first century, renewable sources have become more popular as nonrenewable sources have begun to be depleted. Energy companies around the country are...
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...Technologies for Alternative Energy Climate Change Working Paper No. 7 Ainsley Jolley Climate Change Project Working Paper Series March 2006 Centre for Strategic Economic Studies Victoria University PO Box 14428 Melbourne VIC 8001 AUSTRALIA Telephone +613 9919 1340 Fax +613 9919 1350 Email: csesinfo@vu.edu.au Website: http://www.cfses.com Technologies for Alternative Energy 1. Introduction In Papers 5 and 6 technologies for the main sources of energy consumption were discussed. In Papers 7 and 8 the attention is focussed on technologies that impact on emissions from energy production. Table 1 provides data on the main sources of GHG emissions in the advanced economies for the year 2000. Table 1. Sources of GHG Emissions in the Advanced Economies, 2000 Source of emissions Electricity and heat production Petroleum refining Other energy production (coal and gas transformation) Fugitive emissions (coal, oil and gas) Total energy production All sources of emissions Note: (a) energy production as % of all sources of emissions. Source: CSES (2004). Tg CO2 -e 3831.2 420.7 324.6 441.5 5018.1 13175.3 % of total 76.3 8.4 6.5 8.8 38.1 (a) Papers 7 and 8 focus on emissions from the production of electricity and heat, which represent 76.3% of all emissions related to energy production. The other sources of emissions are not discussed in detail in this report. Coverage of the issues relating to these sources of emissions is given in CSES (2004). Incremental technological...
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...EMERGING TECHNOLOGY: AGRICULTURAL AND ANIMAL WASTE TO ENERGY Kathleen Cimino, Kimberly Andros, Teresa Bartley NEW TECHNOLOGIES IN ENVIRONMENTAL MANAGEMENT University of Maryland University College Spring 2009 Table of Contents 1.0 Introduction 1.1 Waste to energy definition/history/uses 1.2 Agricultural / Animal waste production 1.3 Graph, chart, quantities produced in United States, etc.. 2.0 Conversion of w2e 2.1 Conversion Pathways 2.1.1 Thermochemical 2.1.2 Biochemical 2.1.3 Physico-chemical 2.2 Factors affecting energy recovery 3.0 Agricultural Residue 3.1 Introduction to residue 3.2 What is it 3.3 Where is it produced 3.4 What is role in environment 3.4.1 Environmental risks 3.4.2 Health risks 3.5 Conversion of agricultural residue to energy 3.5.1 Process 3.5.2 Risks 3.5.3 Benefits 3.5.4 Future as energy source 4.0 Animal Wastes 4.1 Introduction to animal waste 4.2 What is animal waste comprised of 4.3 Where is it produced 4.4 What is its role in environment 4.4.1 Environmental risks 4.4.2 Health risks Table of Contents (Cont’d) 4.5 Conversion of animal waste to energy 4.5.1 Process 4.5.2 Risks 4.5.3 Benefits 4.5.4 Future as Energy source 5.0 Processes/Regulations/Technology 5.1 Availability of w2e facilities, costs 5.2 Technological benefits/risks 5.2.1 Other information on technology of w2e, production, transportation, environmental implications 5.3 Regulation governing...
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...EMERGING TECHNOLOGY: AGRICULTURAL AND ANIMAL WASTE TO ENERGY NEW TECHNOLOGIES IN ENVIRONMENTAL MANAGEMENT University of Maryland University College Spring 2009 Table of Contents 1.0 Introduction 1.1 Waste to energy definition/history/uses 1.2 Agricultural / Animal waste production 1.3 Graph, chart, quantities produced in United States, etc.. 2.0 Conversion of w2e 2.1 Conversion Pathways 2.1.1 Thermochemical 2.1.2 Biochemical 2.1.3 Physico-chemical 2.2 Factors affecting energy recovery 3.0 Agricultural Residue 3.1 Introduction to residue 3.2 What is it 3.3 Where is it produced 3.4 What is role in environment 3.4.1 Environmental risks 3.4.2 Health risks 3.5 Conversion of agricultural residue to energy 3.5.1 Process 3.5.2 Risks 3.5.3 Benefits 3.5.4 Future as energy source 4.0 Animal Wastes 4.1 Introduction to animal waste 4.2 What is animal waste comprised of 4.3 Where is it produced 4.4 What is its role in environment 4.4.1 Environmental risks 4.4.2 Health risks Table of Contents (Cont’d) 4.5 Conversion of animal waste to energy 4.5.1 Process 4.5.2 Risks 4.5.3 Benefits 4.5.4 Future as Energy source 5.0 Processes/Regulations/Technology 5.1 Availability of w2e facilities, costs 5.2 Technological benefits/risks 5.2.1 Other information on technology of w2e, production, transportation, environmental implications 5.3 Regulation governing w2e 6.0 Recommendations 6.1 Policy recommendations/guidelines...
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...Case study of the Economic Problem The basic economic problem Economists distinguish between wants and needs; needs are those things which people require to survive. These comprise food, water and protection from the elements in the form of shelter and clothing. Nestlé products fall into two of these categories (food and water). However they can only be described as wants because it is possible to survive without consuming any Nestlé products at all. All resources are considered scarce because the wants for them (the demand) outstrip the various uses for them (the supply). This means that they have to be shared out (distributed) by a mechanism such as price. There are numerous ways in which a resource may be used, an opportunity cost is therefore created whenever one use is preferred over another. If water is used for industrial production, it is not available for agriculture or domestic consumption. Water is a classic example of the distribution problem of scarce resources. There is actually enough water in the world for everyone's needs, and it is not a resource that is ever 'used up' in the way that other resources can be consumed. The amount of water in the earth's water cycle - evaporating from the sea, then falling as precipitation over land - is constant, the problem is one of distribution - it is not always located where it is needed. Read more: http://businesscasestudies.co.uk/nestle/sustainability-and-water/the-basic-economic-problem.html#ixzz1oPYHca55 Case...
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...preparation, and that they are not as sensitive to water vapor as the other CO2-philic materials [9]. Therefore, CO2 adsorption can be considered to be one of the more promising methods, offering potential energy and cost savings [17]. Pyrolysis is a thermochemical method in the absence of oxygen to decompose biomass into biochar, bio-oil, and syngas. Biochar is a stable, carbon-rich charcoal and can be used as a soil amendment [35]. Compared with the carbon-neutral system of carbon sequestration by photosynthesis, the biochar produced by low-temperature pyrolysis of biomass offers a chance to turn bioenergy into a carbon-negative industry [36]. Production of biochar and its storage in soils have been suggested as a means of abating climate change by sequestering carbon, while simultaneously providing energy and increasing crop yields [37]. Besides, the production of biochar often yields bioenergy as a co-product which can substitute fossil fuels [38]. However, pyrolysis does have costs associated with the machinery and heating and is dependent on a supply of cheap biomass [36]. Therefore, it is important and necessary to find out a better process to convert the biomass more quickly, cheaply, and efficiently. Microwave pyrolysis is one of the promising attempts, mainly due to efficient heating of feedstock by the effects of microwave dielectric heating [39]. Microwave heating is unique and offers a number of advantages over conventional heating such as: (a) non-contact heating, (b) energy...
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