Future Growers Module 10: Protected Cropping Briefing Paper
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RES INTEGRATION CONCEPT PAPER D5.1 – Final Version
GeoCom – FP7 CONCERTO – 239515 RES INTEGRATION CONCEPT PAPER D5.1 – Final version WP Leader: P9 – University of Szeged. Key Contributors: P1, P2, P8 2012 GEOCOM WP5 - Technological Research / WP5.1 Integration with other RES The main scope of this sub-WP has been to outline ways of integrating geothermal energy in energy systems in Central-Eastern Europe. In this WP available experience of integrating geothermal energy into a cascaded facility with a view to environmental improvements and extending the utilization time and spectrum of uses of such facilities has been be studied. Researchers at the University of Szeged looked at the economic and environmental factors of geothermal systems operating in the South Great Plain Region, outlined potential project sites and developed a number of project plans presented here in brief. We collected data from GeoCom project partners too regarding utilization in other CEE countries. This volume presents the first concise study of actual and potential geothermal projects in the South Great Plain of Hungary, with project concepts developed entirely by our researchers and contracted experts. Our work is complemented by data provided by our partners from Serbia, Slovakia, FYROM and Poland. As projects in renewable energy use differ greatly from one-another we did not intend to formulate general conclusions regarding economic or environmental factors of RES integration. Rather, we present the RE potential of the target region, showcase our development proposals, and provide a tool (GIS model) to assist future project development. As stated in Annex 1 the main scope of this sub-WP has been to outline ways of integrating geothermal sources in energy systems, including those with other RES. -
High Tunnels
High Tunnels Using Low-Cost Technology to Increase Yields, Improve Quality and Extend the Season By Ted Blomgren and Tracy Frisch Produced by Regional Farm and Food Project and Cornell University with funding from the USDA Northeast Region Sustainable Agriculture Research and Education Program Distributed by the University of Vermont Center for Sustainable Agriculture High Tunnels Authors Ted Blomgren Extension Associate, Cornell University Tracy Frisch Founder, Regional Farm and Food Project Contributing Author Steve Moore Farmer, Spring Grove, Pennsylvania Illustrations Naomi Litwin Published by the University of Vermont Center for Sustainable Agriculture May 2007 This publication is available on-line at www.uvm.edu/sustainableagriculture. Farmers highlighted in this publication can be viewed on the accompanying DVD. It is available from the University of Vermont Center for Sustainable Agriculture, 63 Carrigan Drive, Burlington, VT 05405. The cost per DVD (which includes shipping and handling) is $15 if mailed within the continental U.S. For other areas, please contact the Center at (802) 656-5459 or [email protected] with ordering questions. The High Tunnels project was made possible by a grant from the USDA Northeast Region Sustainable Agriculture Research and Education program (NE-SARE). Issued in furtherance of Cooperative Extension work, Acts of May 8 and June 30, 1914, in cooperation with the United States Department of Agriculture. University of Vermont Extension, Burlington, Vermont. University of Vermont Extension, and U.S. Department of Agriculture, cooperating, offer education and employment to everyone without regard to race, color, national origin, gender, religion, age, disability, political beliefs, sexual orientation, and marital or familial status. -
The Design and Development of Heat Extraction Technologies for the Utilisation of Compost Thermal Energy
The design and development of heat extraction technologies for the utilisation of compost thermal energy By Donai P. Chambers M.Sc. in Environmental Science Galway Mayo Institute of Technology * Supervisor of Research Brendan Allen Submitted to the Higher Education and Training Awards Council November 2009 Table of contents Chapter 1: General Introduction 1.1 General introduction............................................................................................. 1 Chapter 2: Design of compost Heat Extraction Unit 2.1 Abstract....................................................................................................................4 2.2 Introduction...................................................................................................... 5 2.3 Methods: Design of Heat Extraction Unit and Qualification Testing................. 15 2.4 Results......................................................................................................................23 2.5 Discussion................................................................................................................40 Chapter 3: Compost heat in horticulture and a performance comparison with conventional and renewable energy sources 3.1 Abstract....................................................................................................................47 3.2 Introduction........................................................................................................... 48 3.3 Methods....................................................................................................................53 -
|||GET||| Renewable Energy Resources 3Rd Edition
RENEWABLE ENERGY RESOURCES 3RD EDITION DOWNLOAD FREE John Twidell | 9780415584388 | | | | | Renewable Energy Resources 3rd Edition Twidell Solutions Manual A leading application is in Germany, where a highly variable flow from offshore wind farms in the north is transmitted to the main load centres in the south, leading to voltage fluctuations and the need for enhanced reactive power control. With government encouragement to utilise wind and solar technologies, their costs have come down and are now in the same league per kilowatt-hour as the increased costs of fossil fuel technologies, especially with likely carbon emission charges on electricity generation from them. Projection of levelized cost for wind in the U. SolarReserve filed for bankruptcy in Geo-Heat Centre Quarterly Bulletin. Azura is an American anchored buoy extending 4 m above the surface and Renewable Energy Resources 3rd edition m below, and it converts wave energy into 18 kW. Solar thermal energy capacity has increased from 1. Meanwhile Germany provides a case study in accelerated integration of VRE into a stable system, with both politically- and economically-forced retirement of conventional generating capacity. Laughton, M. Aitken, Donald W. Many Latin American and African countries increased their investments significantly as well. At the national level, at least 30 nations around the world already have renewable energy contributing more than 20 percent of energy supply. Science Vol. Petroleum springs and coal mines are not inexhaustible but are rapidly diminishing in many places. However, due to transit disruptions in some geographies, deliveries may be delayed. The concentrator may be a parabolic mirror trough oriented north-south, which tracks the sun's path through the day. -
Horticulture Nursery Management
YASHWANTRAO CHAVAN MAHARASHTRA OPEN UNIVERSITY Resource Book on Horticulture Nursery Management Developed Under National Agricultural Innovation Project, Indian Council of Agricultural Research, New Delhi - 110012. Yashwantrao Chavan Maharashtra Open University Resource Book on Horticulture Nursery Management Index Unit 1: Introduction to Horticulture Nursery Management 1 Unit 2: Plant Propagation Methods 16 Unit 3: Plant Nutrition and its Management in Nursery 42 Unit 4: Plant Protection in Nursery Management 69 Unit 5: Management Practices in Horticulture Nursery 94 Unit 6: Mass Production of Nursery Plants-1 111 Unit 7: Mass Production of Nursery Plants-2 133 Unit 8: Ornamental Horticulture Nursery 164 Unit 9: Plant Library Concepts and Operations 192 Unit 10: Economics and Government Regulations in Horticulture Nursery Management 226 FUNDING ORGANIZATION: NATIONAL AGRICULTURAL INNOVATION PROJECT INDIAN COUNCIL OF AGRICULTURAL RESEARCH, NEW DELHI 110012. PARTNER INSTITUTION: SCHOOL OF AGRICULTURAL SCIENCES YASHWANTRAO CHAVAN MAHARASHTRA OPEN UNIVERSITY, NASHIK 422222. RESEARCH PROJECT: INNOVATIONS IN TECHNOLOGY MEDIATED LEARNING: AN INSTITUTIONAL CAPACITY BUILDING IN USING REUSABLE LEARNING OBJECTS IN AGRO-HORTICULTURE. PROGRAM ADVISORY COMMITTEE: 1. Dr. Surya Gunjal, Director, School of Agricultural Sciences, YCMOU, Nashik-422 222. 2. Dr. Dattaprasad Waskar, Head, Department of Horticulture, Marathwada Krishi Vidyapeeth, Parabhani. 3. Dr. Vijay Dod, Head, Department of Horticulture, Dr. Panjabrao Deshmukh Krishi Vidyapeeth, Akola. 4. Dr. Bhimraj Bhujbal, Ex. Professor of Horticulture, Mahatma Phule Krishi Vidyapeeth, Rahuri. 5. Dr. S. N. Ambad, Professor of Horticulture, College of Agriculture, Pune. 6. Mr. Hemraj Rajput, Subject Matter Specialist, Krishi Vigyan Kendra, YCMOU, Nashik. 7. Mr. Purushottam Hendre, Subject Matter Specialist, Krishi Vigyan Kendra, Babhaleswar, Ahmednagar. 8. Mr. Nitin Thoke, Subject Matter Specialist, Krishi Vigyan Kendra, YCMOU, Nashik. -
Solar Energy
Solar energy This article is about all uses of solar energy. For generation of electricity using solar energy, see Solar power. Nellis Solar Power Plant in the United States, the largest photovoltaic power plant in North America. Renewable energy Biofuel Biomass Geothermal Hydroelectricity Solar energy Tidal power Wave power Wind power v · d · e Solar energy, radiant light and heat from the sun, has been harnessed by humans since ancient times using a range of ever-evolving technologies. Solar radiation, along with secondary solar-powered resources such as wind and wave power, hydroelectricity and biomass, account for most of the available renewable energy on earth. Only a minuscule fraction of the available solar energy is used. Solar powered electrical generation relies on heat engines and photovoltaics. Solar energy's uses are limited only by human ingenuity. A partial list of solar applications includes space heating and cooling through solar architecture, potable water via distillation and disinfection, daylighting, solar hot water, solar cooking, and high temperature process heat for industrial purposes.To harvest the solar energy, the most common way is to use solar panels. Solar technologies are broadly characterized as either passive solar or active solar depending on the way they capture, convert and distribute solar energy. Active solar techniques include the use of photovoltaic panels and solar thermal collectors to harness the energy. Passive solar techniques include orienting a building to the Sun, selecting materials with favorable thermal mass or light dispersing properties, and designing spaces that naturally circulate air. Contents [hide] • 1 Energy from the Sun • 2 Applications of solar technology o 2.1 Architecture and urban planning o 2.2 Agriculture and horticulture o 2.3 Solar lighting o 2.4 Solar thermal . -
Solar Powered Greenhouse
SOLAR POWERED GREENHOUSE Andrew Collins describes a simple fossil fuel free heating and cooling system for year-round growing in an ordinary garden greenhouse. ontrolling temperature swings in small garden green- Above: houses is notoriously difficult. Greenhouses are liable The author Cto overheating in full sun and, of course, most will do installing air little to keep out a hard frost. Among those who are not keen ducting under on using electric or gas heaters in greenhouses there has been the floor of his a resurgence of interest in ‘solar greenhouses’ using various greenhouse. methods to trap the solar energy striking the greenhouse and release it at night. At its simplest, the heat storage medium Left: consists of barrels of water, but in a garden greenhouse these The greenhouse can take up a large proportion of the growing space. in winter. THE EXPERIMENT Below: I describe here an experiment I’ve done, adapting an elegant Heat storage idea that has been used with some success in large greenhouses and release in and polytunnels.1,2 In the Subterranean Heating and Cooling SHCS. System (SHCS), the entire mass of the soil and sub-soil under the greenhouse is used to store heat. Exchange of heat between the air and the soil is enabled by a network of buried perf- Hot air is collected from the top of orated pipes through which air is forced via solar powered the greenhouse fans. Thus, on sunny days warm air gives up its heat to the soil as it passes though the pipes and returns to the greenhouse cooler, helping to control the temperature. -
ASSESSING the POTENTIAL of CO2 UTILISATION in the UK Final Report
ASSESSING THE POTENT IAL OF CO2 UTILISATION IN THE UK Final Report ASSESSING THE POTENTIAL OF CO2 UTILISATION IN THE UK Final report By: Sacha Alberici, Paul Noothout, Goher Ur Rehman Mir, Michiel Stork, Frank Wiersma (Ecofys), with technical input from Niall Mac Dowell, Nilay Shah, Paul Fennell (Imperial College London) Date: 26 May 2017 Project number: SISUK17099 Reviewer: Ann Gardiner © Ecofys 2017 by order of: UK Department for Business, Energy & Industrial Strategy (BEIS) Ecofys - A Navigant Company Ecofys UK Ltd. | Registered Office: 100 New Bridge Street | London EC4V 6JA | Company No.: 04180444 T +44 (0)20 74230-970 | F +44 (0)20 74230-971 | E [email protected] | I ecofys.com Acronyms oC Degrees centigrade ACT Accelerated Carbonation Technology AEC Alkaline electrolysis cells (electrolyser) APCr Air pollution control residue BEIS Department for Business, Energy and Industrial Strategy Ca Calcium CaCO 3 Calcium carbonate CaO Calcium oxide Ca(OH) 2 Calcium hydroxide CCS Carbon Capture and Storage CCU Carbon Capture and Utilisation CCUS Carbon Capture Utilisation and Storage CHP Combined heat and power CKD Cement kiln dust Cl 2 Chlorine CNG Compressed natural gas CO Carbon monoxide CO 2 Carbon dioxide CRI Carbon Recycling International d day DECC Department of Energy and Climate Change DME Dimethyl ester EO Ethylene oxide EPA (US) Environmental Protection Agency EU European Union EU ETS EU Emissions Trading Scheme g Gas (used in chemical formulae) GCC Ground calcium carbonate GHG Greenhouse gas Ecofys - A Navigant Company Ecofys UK Ltd. | Registered Office: 100 New Bridge Street | London EC4V 6JA | Company No.: 04180444 T +44 (0)20 74230-970 | F +44 (0)20 74230-971 | E [email protected] | I ecofys.com H2 Hydrogen ha Hectare HCL Hydrochloric acid HVO Hydrotreated vegetable oil IMO International Maritime Organization IRENA International Renewable Energy Agency k Kilo (thousand) tonne l Liquid (used in chemical formulae) LEP Local Enterprise Partnership LPG Liquefied petroleum gas M5-100 Blend level of methanol in gasoline MCI Mitsui Chemicals Inc.