Within the Industry

Total Page:16

File Type:pdf, Size:1020Kb

Within the Industry GROWING GALLONS WITHIN THE INDUSTRY Propane autogas is the leading alternative fuel in world — powering more than 25 million vehicles worldwide. The U.S. propane-autogas-powered vehicle market lags in acceptance with just over 200,000 vehicles. The propane industry fleet accounts for a small, but growing, percentage of the overall population. Thanks to recent improvements in propane autogas fuel system technology, a growing number of propane marketers are choosing propane autogas rather than diesel and gasoline powered engines when they specify and purchase vehicles. The original objective of this paper was to define the status of converting the propane industry’s fleet to our fuel and identify barriers that were obstructing growth in this industry and others. In this edition, we want to share an industry status update as well as recent successes in the expansion of propane autogas. Today, more marketers are choosing propane autogas for their fleets. As this report outlines, propane autogas is providing significant overall total cost-of-ownership (TCO) savings that translates into profits for all marketers regardless of fleet size. PROPANE AUTOGAS VEHICLES of the current propane vehicles requires an investment, but that Like other transportation markets, the propane industry follows investment is paying off in many ways. Pickup trucks, manager and standard practices when specifying and purchasing class 1-8 service vehicles, bobtails, and cylinder rack trucks all are available vehicles to safely transport payload, optimize vehicle performance, from multiple brands in both dedicated and bi-fuel models. These and provide the highest possible returns for their stakeholders. options provide comparable performance to conventional fuels with Propane autogas is becoming the choice for many marketer fleets a much lower TCO and much quicker ROI. when the preferred class 1-7 propane autogas vehicles meet the need for their required application. TODAY’S PROPANE AUTOGAS FLEET In some cases, especially involving class 7 and 8 vehicles, propane Propane marketers own and operate bobtails, transports, service autogas cannot always provide a viable solution. For example, with trucks, rack trucks, and other light- to medium-duty vehicles (LDV) the propane industry trending towards larger capacity (3,499–5,500 — all of which are candidates for replacement with propane-autogas- gallon) bobtails with heavier payloads, a viable propane autogas powered models or propane conversions. Based on modified 2016 option is not yet available. Outside of these exceptions, propane data prepared by ICF International, the changeover of these vehicles marketers can now purchase certified OEM and aftermarket propane offers a significant opportunity for the propane industry to increase autogas vehicle equipment that fits most applications. annual demand and will increase with each adoption. Industry fleet data reveals similarities between propane and other To calculate the 2016 load growth potential, ICF estimated the total industries. Despite recent advancements in propane autogas fuel number of vehicles owned and operated by propane marketers based system technologies, most propane marketers continue to specify on available industry data and the LP Gas “Top Retailers” survey. diesel- and gasoline-powered engines. These marketers expect Service trucks, and rack or cylinder exchange trucks, were estimated diesel-like durability for their engines and are reluctant to believe based upon industry data published by the major marketers. that propane autogas models can provide comparable performance. For LDVs, ICF assumed at least one vehicle per marketer, scaling Plus, some standard features for the propane industry — such as LDV ownership for the larger marketers based on normal business transmission, PTO, and brake options — are not available in today’s parameters. Using that total, ICF estimated average miles per class 6 and 7 propane autogas offerings. gallon and total miles driven per year to calculate the total potential Yet some marketers are successfully operating daily with the current propane consumption. For 2017, PERC updated ICF’s 2016 numbers class 1-7 options. They’re moving away from traditional thinking using the latest LP Gas Top 50 Survey Results; the table below shows for the opportunity of reduced total cost-of-ownership. In turn, the results of the analysis. that choice is increasing their gross profit margins and making them more competitive in their respective markets. Acceptance POTENTIAL PROPANE INDUSTRY DEMAND FOR PROPANE AUTOGAS IN VEHICLES OWNED BY PROPANE MARKETERS (ESTIMATED)1 Total # of Vehicles Average Miles Average Propane Average Gallons per Total Potential Propane Owned by Propane per Year MPG Vehicle Per Year Consumption (Gallons) Marketers (2017) Bobtails* 18,704 30,000 4 7,500 140,280,000 Service Trucks ** 20,651 20,000 8 2,500 51,627,500 Rack Trucks** 2,184 30,000 4 7,500 16,380,000 Other LDVs*** 9,132 30,000 11 2,727 24,905,454 Total Vehicles Owned by Propane 50,671 233,192,955 Marketers Source: ICF and LP Gas “Top 50” Survey Results (2016). *Based on LP Gas “Top 50” survey data, scaled to the full industry. ** Based on limited industry data available. *** No propane industry-specific data available. Estimated by ICF based on normal business parameters. © 2018 by the Propane Education & Research Council SERVICE TRUCKS Limited data is available on class 2-5 service trucks. PERC estimates the total population to be 20,651 based on ICF and LP Gas data. Service trucks typically are driven the least of all the vehicles — up to 20,000 miles per year. With an average propane consumption rate of eight miles per gallon, purchasing OEM or converting service trucks to run on propane represents 2,500 gallons of propane demand per service truck each year. Overall service truck conversions could total over 50 million gallons of propane demand per year for the industry. TOTAL CLASS 2-5 POPULATION BOBTAILS As the primary transport vehicle owned by propane marketers, bobtails account for the largest fleet expense: fuel. According to 20,651 the survey, the top 50 marketers own and operate a total of 8,218 bobtails. Applying this across the industry and using ICF’s 2016 ADDS UP TO estimates, PERC calculates the total bobtail population to be about 18,704. Bobtails travel up to 30,000 miles per year and have an average propane consumption rate of four miles per gallon. Each bobtail consumes approximately 7,500 gallons of propane per year. 50 MILLION In total, this translates to over 140 million gallons of increased propane demand from converting bobtails to propane internal GALLONS OF PROPANE DEMAND combustion engines. RACK TRUCKS TOTAL BOBTAIL POPULATION OF Although data on the number and usage of rack or cylinder exchange trucks is limited, PERC estimates the total to be about 2,184. Rack trucks travel on average 30,000 miles per year at four miles per gallon. Therefore, each rack truck presents over 7,500 gallons of 18,704 potential propane demand growth, which equates to just over 16 TRANSLATES TO OVER million gallons added for the whole industry. LDVS There is no available data on population or consumption estimates for LDVs in the propane industry. To estimate LDV demand growth 140 MILLION potential, ICF calculated the 2016 population based on normal GALLONS OF INCREASED PROPANE DEMAND business standards. PERC updated ICF’s estimate for 2017. This technique resulted in a total population of 9,132 vehicles. Each LDV is estimated to travel around 30,000 miles per year at an average TRANSPORTS rate of 11 miles per gallon. This equates to a demand growth potential of over 2,700 gallons per LDV, or almost 25 million gallons Transports are not included in the Potential Propane Industry Demand for the entire industry. For Propane Autogas in Vehicles Owned By Propane Marketers (Estimated) chart because class 8 has been a limited focus market of Purchasing OEM or converting all bobtails, service trucks, rack PERC’s commercialization strategy, and there isn’t a class 8 product trucks, and LDVs owned by propane marketers is an overall demand available today. For the sake of comparison, the estimated transport growth potential of more than 233 million gallons annually. Current population is 2,176; PERC, using ICF 2016 calculations, estimates yearly U.S. retail propane demand for all markets is about nine billion that to be 3,830 for the whole industry. While transports only make gallons, so the conversion of industry fleet vehicles could be a 2.6 up a small percentage of the total vehicle population, they drive percent increase of total propane demand each year. Within the the most miles annually. Assuming that each transport travels up to domestic internal combustion engine market segment alone, ICF 50,000 miles per year and consumes propane at the rate of eight estimates current demand to be about 736 million gallons per year. miles per gallon, each transport represents 6,250 gallons of added Converting propane industry fleet vehicles to our own fuel could propane demand per year. That could add up to nearly 24 million increase demand in that market segment by over 30 percent. gallons for the industry. © 2018 by the Propane Education & Research Council THE CASE FOR PROPANE AUTOGAS VEHICLES How do these calculations apply to each marketer? How can they benefit from the adoption of propane autogas? Let’s begin with performance and cost comparisons that are negatively impacting budgets and profits for many marketers today. Diesel is the preferred engine fuel for many industries, including the propane industry. However, diesel engines are more complex and costly to own and operate. Here are a few well documented facts about the challenges with diesel engine and emissions technology today: • Diesel engines do not perform well in cold weather and, depending on the ambient temperatures, may not perform at all. • Diesel engines require block heaters, which can significantly increase electric costs and are reliable only when drivers remember to plug them in each night.
Recommended publications
  • A Review of Performance-Enhancing Innovative Modifications in Biodiesel Engines
    energies Review A Review of Performance-Enhancing Innovative Modifications in Biodiesel Engines T. M. Yunus Khan 1,2 1 Research Center for Advanced Materials Science (RCAMS), King Khalid University, PO Box 9004, Abha 61413, Saudi Arabia; [email protected] 2 Department of Mechanical Engineering, College of Engineering, King Khalid University, Abha 61421, Saudi Arabia Received: 1 August 2020; Accepted: 24 August 2020; Published: 26 August 2020 Abstract: The ever-increasing demand for transport is sustained by internal combustion (IC) engines. The demand for transport energy is large and continuously increasing across the globe. Though there are few alternative options emerging that may eliminate the IC engine, they are in a developing stage, meaning the burden of transportation has to be borne by IC engines until at least the near future. Hence, IC engines continue to be the prime mechanism to sustain transportation in general. However, the scarcity of fossil fuels and its rising prices have forced nations to look for alternate fuels. Biodiesel has been emerged as the replacement of diesel as fuel for diesel engines. The use of biodiesel in the existing diesel engine is not that efficient when it is compared with diesel run engine. Therefore, the biodiesel engine must be suitably improved in its design and developments pertaining to the intake manifold, fuel injection system, combustion chamber and exhaust manifold to get the maximum power output, improved brake thermal efficiency with reduced fuel consumption and exhaust emissions that are compatible with international standards. This paper reviews the efforts put by different researchers in modifying the engine components and systems to develop a diesel engine run on biodiesel for better performance, progressive combustion and improved emissions.
    [Show full text]
  • And Heavy-Duty Truck Fuel Efficiency Technology Study – Report #2
    DOT HS 812 194 February 2016 Commercial Medium- and Heavy-Duty Truck Fuel Efficiency Technology Study – Report #2 This publication is distributed by the U.S. Department of Transportation, National Highway Traffic Safety Administration, in the interest of information exchange. The opinions, findings and conclusions expressed in this publication are those of the author and not necessarily those of the Department of Transportation or the National Highway Traffic Safety Administration. The United States Government assumes no liability for its content or use thereof. If trade or manufacturers’ names or products are mentioned, it is because they are considered essential to the object of the publication and should not be construed as an endorsement. The United States Government does not endorse products or manufacturers. Suggested APA Format Citation: Reinhart, T. E. (2016, February). Commercial medium- and heavy-duty truck fuel efficiency technology study – Report #2. (Report No. DOT HS 812 194). Washington, DC: National Highway Traffic Safety Administration. TECHNICAL REPORT DOCUMENTATION PAGE 1. Report No. 2. Government Accession No. 3. Recipient's Catalog No. DOT HS 812 194 4. Title and Subtitle 5. Report Date Commercial Medium- and Heavy-Duty Truck Fuel Efficiency February 2016 Technology Study – Report #2 6. Performing Organization Code 7. Author(s) 8. Performing Organization Report No. Thomas E. Reinhart, Institute Engineer SwRI Project No. 03.17869 9. Performing Organization Name and Address 10. Work Unit No. (TRAIS) Southwest Research Institute 6220 Culebra Rd. 11. Contract or Grant No. San Antonio, TX 78238 GS-23F-0006M/DTNH22- 12-F-00428 12. Sponsoring Agency Name and Address 13.
    [Show full text]
  • Shifting Gears: the Effect of a Future Decline in Diesel Market Share On
    WHITE PAPER JULY 2017 SHIFTING GEARS: THE EFFECTS OF A FUTURE DECLINE IN DIESEL MARKET SHARE ON TAILPIPE CO2 AND NOX EMISSIONS IN EUROPE Sonsoles Díaz, Josh Miller, Peter Mock, Ray Minjares, Susan Anenberg, Dan Meszler www.theicct.org [email protected] BEIJING | BERLIN | BRUSSELS | SAN FRANCISCO | WASHINGTON ACKNOWLEDGMENTS The authors thank the reviewers of this report for their guidance and constructive comments, with special thanks to Anup Bandivadekar, John German, Uwe Tietge, Dan Rutherford and two anonymous reviewers. For additional information: International Council on Clean Transportation Europe Neue Promenade 6, 10178 Berlin +49 (30) 847129-102 [email protected] | www.theicct.org | @TheICCT © 2017 International Council on Clean Transportation Funding for this work was generously provided by the ClimateWorks Foundation and Stiftung Mercator. SHIFTING GEARS: THE EFFECTS OF A FUTURE DECLINE IN DIESEL MARKET SHARE EXECUTIVE SUMMARY Diesel vehicles currently account for more than half of new light-duty vehicle registrations in Europe. Previous ICCT analyses of the costs of attaining more stringent CO2 emission standards assumed a constant diesel market share in future years. However, the diesel market share in Europe could decrease in future years as a result of a combination of forces, including changing consumer choices in the wake of the defeat device scandal; vehicle manufacturers shifting away from diesel technology in response to tighter NOX emission standards and real-driving emissions testing; availability of cheaper and more powerful electric and hybrid cars; and government programs to discourage diesel vehicle use (e.g., by restricting their circulation, or increasing taxes on diesel fuel). A decreasing market share of diesel passenger cars could have broad implications for the cost of attaining CO2 emission targets and the magnitude of fleetwide NOX emissions.
    [Show full text]
  • A Review: Concept of Diesel Vapor Combustion System
    ISSN(Online) : 2319-8753 ISSN (Print) : 2347-6710 International Journal of Innovative Research in Science, Engineering and Technology (An ISO 3297: 2007 Certified Organization) Vol. 5, Issue 4, April 2016 A Review: Concept of Diesel Vapor Combustion System Vijayeshwar.B.V P.G. Student, Department of Mechanical Engineering, Sri Venkateshwara College of Engineering, Bangalore, Karnataka, India ABSTRACT: This paper presents a concept of technique for delivery of heavy fuel oil (diesel fuel) in vapour form (gaseous state) to SI engine manifold and process of combustion of heavy fuel oil mixture (vapour and air) in light weight spark-ignition engines. If the diesel fuel is delivered to SI engine combustion chamber in vapour form (diesel fumes) through a technique of vaporization of diesel fuel and mixing of air-fuel, complete combustion of air-fuel mixture can be achieved, more improved mileage can be obtained with less emissions without compromising with engine performance aspects which is the must required criteria for any automobile. Here the principle used in vaporization of diesel is a hot air vaporization technique, where hot air is supplied at the bottom diesel sub tank/ vaporizing container as a result of which these air bubbles extract the diesel vapours forming diesel fumes from liquid diesel and these diesel vapours when delivered to engine with appropriate mixing with air and when undergoes combustion gives the above expected results. KEYWORDS: diesel fuel vapours, fuel vaporizer, air-fuel mixture, vapour combustion, reduced emission. I. INTRODUCTION The diesel engine (also known as a compression-ignition or CI engine) is an internal combustion engine in which ignition of the fuel that has been injected into the combustion chamber is initiated by the high temperature which a gas achieves when greatly compressed (adiabatic compression).
    [Show full text]
  • Biodiesel Fleet Durability Study
    Draft Final Report Biodiesel Fleet Durability Study Prepared for: Mr. Bob Okamoto California Air Resources Board 1001 "I" Street P.O. Box 2815 Sacramento, CA 95812 July 2010 Submitted by: Dr. Thomas D. Durbin Dr. J. Wayne Miller Ms. S. Michelle Jiang University of California CE-CERT Riverside, CA 92521 951-781-5791 951-781-5790 (fax) Disclaimer This report was prepared as an account of work sponsored by the California Air Resource Board. The statements and conclusions in this report are those of the contractor and not necessarily those of California Air Resources Board. The mention of commercial products, their source, or their use in connection with material reported herein is not to be construed as actual or implied endorsement of such products. Acknowledgments We acknowledge funding from the California Air Resources Board (CARB) under the grant No. G06-AF38. i Table of Contents Disclaimer i Acknowledgments i Table of Contents ii List of Tables iv Table of Figures v Abstract vi Acronyms and Abbreviations viii Executive Summary ix 1 Introduction 1 2 Biodiesel Use in Use in Compression Ignition Engines 3 2.1 Biodiesel Basics 3 2.1.1 What is Biodiesel? 3 2.1.2 Properties of Commercial #2 Diesel and Biodiesel Fuels 3 2.1.3 Biodiesel Fuel Standards 5 2.2 Engine and Fuel System with Biodiesel Use 7 2.2.1 Biodiesel Use in Compression Ignition Engines 7 2.2.2 Statement of the Diesel Fuel Injector Manufacturers 9 2.2.3 Warranties 9 2.2.4 Engine Performance 12 2.2.5 Biodiesel Solvency & Filter Plugging 12 2.2.6 Materials Compatibility 12 2.3
    [Show full text]
  • Why the Development of Internal Combustion Engines Is Still Necessary to Fight Against Global Climate Change from the Perspective of Transportation
    applied sciences Editorial Why the Development of Internal Combustion Engines Is Still Necessary to Fight against Global Climate Change from the Perspective of Transportation José Ramón Serrano * , Ricardo Novella and Pedro Piqueras CMT—Motores Térmicos, Universitat Politècnica de València, 46022 València, Spain; [email protected] (R.N.); [email protected] (P.P.) * Correspondence: [email protected] Received: 26 September 2019; Accepted: 4 October 2019; Published: 29 October 2019 Internal combustion engines (ICE) are the main propulsion systems in road transport. In mid-2017, Serrano [1] referred to the impossibility of replacing them as the power plant in most vehicles. Nowadays, this statement is true even when considering the best growth scenario for all-electric and hybrid vehicles. The arguments supporting this position consider the growing demand for transport, the strong development of cleaner and more efficient ICEs [2,3], the availability of fossil fuels, and the high energy density of said conventional fuels. Overall, there seems to be strong arguments to support the medium-long-term viability of ICEs as the predominant power plant for road transport applications. However, the situation has changed dramatically in the last few years. The media and other market players are claiming the death of ICEs in the mid-term [4]. Politicians from several G7 countries, such as France, Spain, and the United Kingdom, have announced the prohibition of ICEs in their markets [5], in some cases, as early as 2040. Large cities, such London, Paris, Madrid, and Berlin, are also considering severe limits to ICE-powered vehicles. What is the analysis that can be made from this new situation? 1.
    [Show full text]
  • Total Cost of Ownership: a Diesel Versus Gasoline Comparison (2012-2013)
    Total Cost of Ownership: A Diesel Versus Gasoline Comparison (2012-2013) by Bruce M. Belzowski Managing Director Automotive Futures June, 2015 University of Michigan Transportation Research Institute 1 Contents Abstract ......................................................................................................................................................... 5 Acknowledgements ....................................................................................................................................... 5 Method .......................................................................................................................................................... 8 Sample .................................................................................................................................................... 10 Vehicle Comparisons .................................................................................................................................. 10 The Resale Model ....................................................................................................................................... 14 Results ..................................................................................................................................................... 16 The Depreciation Model ............................................................................................................................. 18 Results ....................................................................................................................................................
    [Show full text]
  • Spray Analysis and Combustion Assessment of Diesel-LPG Fuel Blends in Compression Ignition Engine
    Article Spray Analysis and Combustion Assessment of Diesel-LPG Fuel Blends in Compression Ignition Engine Massimo Cardone 1 , Renato Marialto 2,* , Roberto Ianniello 2 , Maurizio Lazzaro 2 and Gabriele Di Blasio 2 1 Department of Chemical, Materials and Production Engineering, University of Naples Federico II, via Claudio, 21, 80125 Naples, Italy; [email protected] 2 CNR–STEMS, Viale Marconi, 4, 80125 Naples, Italy; [email protected] (R.I.); [email protected] (M.L.); [email protected] (G.D.B.) * Correspondence: [email protected]; Tel.: +39-081-7177185 Abstract: A major challenge for internal combustion engines (ICEs), and diesel engines, in particular, is the reduction of exhaust emissions, essentially nitrogen oxides (NOx) and particulate matter (PM). In this regard, the potential of LPG-diesel blends was evaluated in this work. The LPG and diesel blends were externally prepared by exploiting their perfect miscibility at high pressures. Two diesel- LPG mixtures with 20% and 35% by mass LPG concentrations were tested. In terms of spatial and temporal evolution, the spray characterization was performed for the two blends and pure diesel fuel through high-speed imaging technique. The combustion behavior, engine performance and exhaust emissions of LPG-diesel blends were evaluated through a test campaign carried out on a single- cylinder diesel engine. Diesel/LPG sprays penetrate less than pure diesel. This behavior results from a lower momentum, surface tension and viscosity, of the blend jets in comparison to diesel which guarantee greater atomization. The addition of LPG to diesel tends to proportionally increase the spray cone angle, due to the stronger turbulent flow interaction caused by, the lower density and low flash-boiling point.
    [Show full text]
  • Understanding Engine Certification
    Understanding Engine Certification ARB regulates tailpipe emissions for many kinds of engines; everything from lawn equipment to on-road and off-road vehicles. To show compliance with these regulations, engine manufacturers must follow strict testing procedures to demonstrate or certify that their engine or vehicle meets the engine emission standards while operating in a specific service class (test cycle and weight restriction). An engine can not be placed in a vehicle and operated outside its service class designation. Emission standards are set for a variety of service classes including new passenger cars (PC), light-duty trucks (LDT), medium-duty vehicles (MDV), heavy-duty engines (HDE) and vehicles (HDV) including urban buses (UB), on- and off-road motorcycles (ONMC and OFMC), all-terrain vehicles (ATV), and electric golf carts (eGC). Vehicles regulated by the Fleet Rule for Transit Agencies are powered by engines certified to the heavy-duty engine service class. Heavy-duty engines operate in vehicles with gross vehicle weight rating (GVWR) of above 8,500 pounds (lbs) in the federal jurisdiction and above 14,000 lbs in California (model year 1995 and newer). Engines used in heavy-duty vehicles are further divided into additional service classes by GVWR, as follows: • Light heavy-duty (LHD) diesel engines: 8,500 lbs < LHD < 19,500 lbs (14,000 lbs < LHDDE < 19,500 lbs in California, for 1995 and newer model year) • Medium heavy-duty (MHD) diesel engines: 14,000 lbs ≤ MHD ≤ 33,000 lbs • Heavy heavy-duty (HHD) diesel engines : HHD > 33,000 lbs • Urban Bus (UB): An UB is a passenger carrying vehicle owned or operated by a public transit agency, powered by a HHD, or of a type normally powered by a HHD and intended primarily for intra- city operation.
    [Show full text]
  • Diesel Idling Factsheet
    Diesel Idling Factsheet The Non-Road Diesel Engine Emission Regulation Bylaw No. 1161, 2012 (the Bylaw) limits unnecessary idling, of non-road diesel engines 25 horsepower (19 kW) or greater, to 5 consecutive minutes. Unnecessary idling wastes fuel, causes air pollution and increases engine wear. An idling diesel engine produces much higher emissions than it would while using the same amount of fuel under load. Extended idling causes a build-up of soot inside the engine and results in a puff of black smoke when the engine revs. Exceptions to the 5 minute idling rule If required for safe operation of the vehicle or in accordance with the manufacturer’s specifications. If required for testing or maintenance. If performing emergency work. If necessary to perform the purpose of the machine in the course of its operation, including during the operation of a crane, cement mixer, cherry picker, boom lift or similar machine. If operated as stated in a written anti-idling policy. Myths about idling It’s good for the engine to idle. Diesel engines don’t burn much fuel at idle. Diesel engines create more heat by idling. Diesel engines must idle or they won’t restart. Facts about idling Excessive idling wastes fuel and wastes money. Idling generates harmful emissions. Idling creates unnecessary noise. Fuel contamination of lube oil is higher at idle. Idling reduces engine life. Idling time of about 3-5 minutes is all that is required to properly cool an engine after being under heavy load. Idling can be minimized through education and implementation of an anti-idling policy.
    [Show full text]
  • Engines for Biogas
    Engines for biogas Klaus von Mitzlaff A Publication of the Deutsches Zentrum für Entwicklungstechnologien GATE , a Division of the Deutsche Gesellschaft für Technische Zusammenarbeit (GTZ) GmbH - 1988 Copyright Deutsches Zentrum für Entwicklungstechnologien - GATE Deutsches Zentrum für Entwicklungstechnologien - GATE - stands for German Appropriate Technology Exchange. It was founded in 1978 as a special division of the Deutsche Gesellschaft für Technische Zusammenarbeit (GTZ) GmbH. GATE is a centre for the dissemination and promotion of appropriate technologies for developing countries. GATE defines "Appropriate technologies" as those which are suitable and acceptable in the light of economic social and cultural criteria. They should contribute to socio-economic development whilst ensuring optimal utilization of resources and minimal detriment to the environment. Depending on the case at hand a traditional, intermediate or highly-developed can be the "appropriate" one. GATE focusses its work on three key areas: - Dissemination of Appropriate Technologies: Collecting, processing and disseminating information on technologies appropriate to the needs of the developing countries; ascertaining the technological requirements of Third World countries; support in the form of personnel material and equipment to promote the development and adaptation of technologies for developing countries. - Research and Development: Conducting and/or promoting research and development work in appropriate technologies. - Environmental Protection: The growing
    [Show full text]
  • Development of Biogas Conversion Kit for Diesel Engine
    Development of Biogas Conversion Kit for Diesel engine 1. Introduction A substantial quantity of wet as well as dry biomass in various forms becomes naturally available in the rural areas. Efficient utilization/ recycling of biomass are a much needed intervention. Appropriate technologies for waste-to-energy conversion of this resource will go a long way in improving rural economy, ecology as well as energy self-sufficiency. Recycling of moist biomass such as animal and human excreta, domestic as well as agro-industrial organic waste through biomethanation is a highly cherished objective which will have universal applicability in the rural sector. In fact, this conversion process makes available renewable energy in the form of biogas as well as valuable biomanure in the form of slurry. It improves rural sanitation, promotes the adoption of organic farming and the use of animals more viable economically. In fact, even in the urban sector, such a conversion is becoming inevitable in context with large dairy clusters, poultry and other animal farms, sewage treatment plants and even in large hotels, hostels, food processing industries etc. where large amount of organic waste is produced and needs to be recycled in an eco-friendly manner. It is essential to develop commercially viable technologies and rural entrepreneurship packages using these technologies to effectively harness locally available, renewable energy resources in the rural area to provide basic utilities for the rural population and to augment the entrepreneurial activity by value addition to agricultural and other RI products. In order to integrate above-mentioned waste-to-energy conversion with widespread commercial activity, it is important to devise appropriate field worthy technologies not only for production but also for commercial utilization of biogas at scales suitable for the rural /urban sector.
    [Show full text]