Fuel Injection - Wikipedia 8/28/20, 1 04 PM
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Type Certificate Holder Record Teledyne Continental Motors Ownership & Name Change As of April 19, 2011 (Continental Motors, Inc.)
DEPARTMENT OF TRANSPORTATION FEDERAL AVIATION ADMINISTRATION E-233 Revision 18 CONTINENTAL C75-8, -8F, -8FH, -8FHJ, -8FJ, -8J C75-12, -12F, -12FH, -12FHJ, -12FJ, -12J C75-12B, -12BF, -12BFH C75-15, -15F C85-8, -8F, -8FHJ, -8FJ, -8J C85-12, -12F, -12FH, -12FHJ, -12FJ, -12J C85-14F C85-15, -15F November 1, 2011 TYPE CERTIFICATE DATA SHEET NO. E-233 Engines of models described herein conforming with this data sheet (which is part of type certificate No. 233) and other approved data on file with the Federal Aviation Administration, meet the minimum standards for use in certificated aircraft in accordance with pertinent aircraft data sheets and applicable portions of the Civil Air Regulations provided they are installed, operated and maintained as prescribed by the approved manufacturer's manuals and other approved instructions. Type Certificate Holder Continental Motors Mobile, Alabama 36601 Type Certificate Holder Record Teledyne Continental Motors Ownership & name change as of April 19, 2011 (Continental Motors, Inc.) Model C75-8 C75-12, -15 C85-8 C85-12, -14, -15 Type 4H0A - - - - - - Rating, ICAO or ARDC standard atmosphere Max. continuous hp., r.p.m., full throttle 75-2275 - - 85-2575 - - at sea level pressure altitude Takeoff hp., 5 min., r.p.m. full throttle at 75-2275 - - 85-2575 - - sea level pressure altitude (87-2650 for -J, -FHJ and -FJ models only) Fuel (min. grade aviation gasoline) 73 - - - - - - Lubricating oil, ambient temperature Oil Grade Below 40°F. SAE 20 - - - - - - Above 40°F. SAE 40 - - - - - - Bore and stroke, in. 4.062 x 3.625 - - - - - - Displacement, cu. in. 188 - - - - - - Compression ratio 6.3:1 - - - - - - Weight (dry), lb. -
Uillted States Patent [19] [11] Patent Number: 5,315,973 1
' _ US005315973A UIllted States Patent [19] [11] Patent Number: 5,315,973 Hill et al. [45] Date of Patent: May 31, 1994 [54] IN'I'ENSIFIER-INJECI‘OR FOR GASEOUS 4,704,997 11/1987 EndO =1 a1. .................. .. 123/27 GE FUEL FOR POSITIVE DISPLACEMENT 4,742,801 5/1988 Kelgard . .. 123/526 ENGINES 4,831,982 5/1989 Baranescu ...... ..123/300 4,865,001 9/1989 Jensen ....... .. 123/27 GE [75] Inventors: Philip G. Hill, Vancouver; K. Bruce 4,922,862 5/1990 Casacci 123/575 Hodgins, Delta, both or Canada 5,067,467 11/1991 11111 et al. 123/497 , _ _ __ _ 5,136,986 8/1992 Jensen 123/27 GE [73] Ass1gnee= Umvemty 0f Brlhsh Columbm, 5,190,216 3/1993 Deneke ............................. .. 239/434 Van uver, Can 11 co I a a Primary Examiner-Noah P. Kamen [21] APPL No‘ 7974442 Assistant Examiner-Erick Solis [22] Filed: No“ 22, 1991 Attorney, Agent/or Finn-Seed and Berry [57] ABSTRACT Related U's' Apphcahon Data This invention relates to a novel device for compressing [63] Continuation-impart Of Ser- NO- 441,104, NOV. 27, and injecting gaseous fuel from a variable pressure gase 1989, Pat- N0~_5,067,467- ous fuel supply into a fuel receiving apparatus. More [51] I111. 01.5 ................... .. F02M 21/02; FOZM 61/00; particularly, this invention relates to an intensi?er-injec FQZB 3 /00 tor which compresses and injects gaseous fuel from a [52] US. Cl. .................................. .. 123/304; 123/299; Variable Press“re SOurce into the cylinder of a Positive 123/27 GE; 123/525; 239/533_12 displacement engine. -
Certificated Aircraft Engines
CERTIFICATED AIRCRAFT ENGINES SSP1101 DECEMBER 2013 652 Oliver Street Williamsport, PA 17701 U.S.A. Phone: Main OfficeU.S. and Canada Toll Free +1 (800) 2583279 Direct +1 (570) 3236181 Sales Department +1 (570) 3277278 Facsimile +1 (570) 3277101 Visit us on the World Wide Web at: http://www.lycoming.com ©2013 Avco Corporation All Rights Reserved. Lycoming Engines is a division of Avco Corporation. TABLE OF CONTENTS PISTON CERTIFICATED ENGINES – (4) Four Cylinder Series ....................................................................................................................................................... 1 (6) Six Cylinder Series ....................................................................................................................................................... 16 (8) Eight Cylinder Series .................................................................................................................................................... 32 PISTON ENGINE INSTALLATIONS (4) Four Cylinder Installations............................................................................................................................................ 33 (6) Six Cylinder Installations.............................................................................................................................................. 42 TURBOCHARGED .................................................................................................................................................... 46 GEARED................................................................................................................................................................... -
Experimental Investigation of HCCI Engine with Ethanol Manifold Injection
Journal of Basic and Applied Engineering Research Print ISSN: 2350-0077; Online ISSN: 2350-0255; Volume 1, Number 4; October, 2014 pp. 16-20 © Krishi Sanskriti Publications http://www.krishisanskriti.org/jbaer.html Experimental Investigation of HCCI Engine with Ethanol Manifold Injection Aswin R.1, Karthick Sundar R.2, Aravindraj S.3, Bhaskar K.4 1,2 Department of Automobile Engineering Rajalakshmi Engineering College, Thandalam, Chennai, India Abstract: In this work the homogeneous charge compression occurs at the boundary of fuel-air mixing, caused by an ignition engine with manifold ethanol injection and diesel in the injection event, to initiate combustion. in-cylinder injection were selected as fuels and test conducted in a single cylinder constant speed diesel engine.HCCI combustion The defining characteristics of HCCI engine is that the incorporates the advantages of both spark ignition engines and compression ignition engines. The effect of pre mixed ratio and ignition occurs at several places at a time which makes the injection timing were studied to determine the performance, fuel/air mixture burn nearly spontaneously. There is no direct emission and combustion characteristics of HCCI engine.In initiator of combustion. This makes the process inherently cylinder pressure crank angle diagram was obtained using AVL challenging to control. However, with advances in piezo electric pressure transducer and AVL crank angle decoder. microprocessors and a physical understanding of the ignition The combustion parameters like peak pressure, combustion process, HCCI can be controlled to achieve gasoline engine- duration, heat release rate, cumulative heat release rate, mass like emissions along with diesel engine like efficiency. -
05 NG Engine Technology.Pdf
Table of Contents NG Engine Technology Subject Page New Generation Engine Technology . .5 Turbocharging . .6 Turbocharging Terminology . .6 Basic Principles of Turbocharging . .7 Bi-turbocharging . .10 Air Ducting Overview . .12 Boost-pressure Control (Wastegate) . .14 Blow-off Control (Diverter Valves) . .15 Charge-air Cooling . .18 Direct Charge-air Cooling . .18 Indirect Charge Air Cooling . .18 Twin Scroll Turbocharger . .20 Function of the Twin Scroll Turbocharger . .22 Diverter valve . .22 Tuned Pulsed Exhaust Manifold . .23 Load Control . .24 Controlled Variables . .25 Service Information . .26 Limp-home Mode . .26 Direct Injection . .28 Direct Injection Principles . .29 Mixture Formation . .30 High Precision Injection . .32 HPI Function . .33 High Pressure Pump Function and Design . .35 Pressure Generation in High-pressure Pump . .36 Limp-home Mode . .37 Fuel System Safety . .38 Piezo Fuel Injectors . .39 Injector Design and Function . .40 Injection Strategy . .42 Initial Print Date: 09/06 Revision Date: 03/11 Subject Page Piezo Element . .43 Injector Adjustment . .43 Injector Control and Adaptation . .44 Injector Adaptation . .44 Optimization . .45 HDE Fuel Injection . .46 VALVETRONIC III . .47 Phasing . .47 Masking . .47 Combustion Chamber Geometry . .48 VALVETRONIC Servomotor . .50 Function . .50 Subject Page BLANK PAGE NG Engine Technology Model: All from 2007 Production: All After completion of this module you will be able to: • Understand the technology used on BMW turbo engines • Understand basic turbocharging principles • Describe the benefits of twin Scroll Turbochargers • Understand the basics of second generation of direct injection (HPI) • Describe the benefits of HDE solenoid type direct injection • Understand the main differences between VALVETRONIC II and VALVETRONIC II I 4 NG Engine Technology New Generation Engine Technology In 2005, the first of the new generation 6-cylinder engines was introduced as the N52. -
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. -
US Army Mechanic Course Wheeled Vehicle Fuel and Exhaust Systems
SUBCOURSE EDITION OD1004 6 US ARMY ORDNANCE CENTER AND SCHOOL WHEELED VEHICLE FUEL AND EXHAUST SYSTEM US ARMY LIGHT WHEEL VEHICLE MECHANIC MOS 63B SKILL LEVEL 3 COURSE WHEELED VEHICLE FUEL AND EXHAUST SYSTEMS SUBCOURSE NO. OD1004 EDITION 6 US Army Ordnance Center and School Five Credit Hours GENERAL The Wheeled Vehicle Fuel and Exhaust Systems subcourse, part of the Light Wheel Vehicle Mechanic MOS 63B Skill Level 3 Course, is designed to teach the knowledge necessary to develop the skills to service and maintain fuel and exhaust systems. This subcourse provides information about the fuel and exhaust systems for both spark ignition and compression ignition engines. It also provides information on inspection procedures for these systems. The subcourse is presented in three lessons. Each lesson corresponds to a terminal objective as indicated below. Lesson 1: FUNDAMENTALS OF GASOLINE ENGINE FUEL SYSTEMS TASK: Describe the fundamentals of gasoline engine fuel systems. CONDITIONS: Given information about the types, location, operation, and inspection of gasoline engine fuel and air system components. STANDARDS: Answer 70 percent of the multiple-choice items on the examination covering the fundamentals of gasoline engine fuel systems. Lesson 2: FUNDAMENTALS OF COMPRESSION IGNITION ENGINE FUEL SYSTEMS TASK: Describe the fundamentals of compression ignition engine fuel systems. CONDITIONS: Given information about the types, location, operation, and inspection of compression ignition engine fuel system components. STANDARDS: Answer 70 percent of the multiple-choice items on the examination covering the fundamentals of compression ignition engine fuel systems. i Lesson 3: ENGINE EXHAUST SYSTEMS TASK: Describe the fundamentals of engine exhaust systems. -
Design Details of the Mitsubishi Kinsei Engine*
! THE CONDITION of the only conversion figures in the hope that physical engine available for study these figures will best serve the and the data readily available can purposes intended. form the basis for only a very The inspection indicates to the meager report. The study has, writer two possible conclusions however, been an interesting one which are presented herewith: and the results are recorded for what 1. That the group responsible for value they may have. The design the design did a very ingenious job comments are, of necessity, of a of combining what they apparently general nature — much the same as believed to be the most desirable those which would be made on the features of a number of products of preliminary layout of a new design. foreign manufacture — proved For the convenience of many of us features all. These features are built who habitually think in term s of into a composite design of the sort English units, these units are used that “has to work the first time” — even though a large portion of the and probably did. work is apparently based on the 2. That manufacturing methods metric system. As a result, the and equipment of manufacturers numerical data are approximate whose features were appropriated ! "# $ %% & ' () "# # *! "# # +, "# & ' % & ' % "# & % $' % % - % * General description of the engine appeared in “Aviation' s” report on the joint meeting of the Society of Automotive Engineering Detroit Section, and the Engineering Society of Detroit, June 8, 1942, in the article War Production of Aircraft, page 104, July, 1942. This additional material is presented through the courtesy of the SAE. -
FUEL INJECTION SYSTEM for CI ENGINES the Function of a Fuel
FUEL INJECTION SYSTEM FOR CI ENGINES The function of a fuel injection system is to meter the appropriate quantity of fuel for the given engine speed and load to each cylinder, each cycle, and inject that fuel at the appropriate time in the cycle at the desired rate with the spray configuration required for the particular combustion chamber employed. It is important that injection begin and end cleanly, and avoid any secondary injections. To accomplish this function, fuel is usually drawn from the fuel tank by a supply pump, and forced through a filter to the injection pump. The injection pump sends fuel under pressure to the nozzle pipes which carry fuel to the injector nozzles located in each cylinder head. Excess fuel goes back to the fuel tank. CI engines are operated unthrottled, with engine speed and power controlled by the amount of fuel injected during each cycle. This allows for high volumetric efficiency at all speeds, with the intake system designed for very little flow restriction of the incoming air. FUNCTIONAL REQUIREMENTS OF AN INJECTION SYSTEM For a proper running and good performance of the engine, the following requirements must be met by the injection system: • Accurate metering of the fuel injected per cycle. Metering errors may cause drastic variation from the desired output. The quantity of the fuel metered should vary to meet changing speed and load requirements of the engine. • Correct timing of the injection of the fuel in the cycle so that maximum power is obtained. • Proper control of rate of injection so that the desired heat-release pattern is achieved during combustion. -
DEPARTMENT of TRANSPORTATION National
DEPARTMENT OF TRANSPORTATION National Highway Traffic Safety Administration 49 CFR Parts 531 and 533 [Docket No. NHTSA-2008-0069] Passenger Car Average Fuel Economy Standards--Model Years 2008-2020 and Light Truck Average Fuel Economy Standards--Model Years 2008-2020; Request for Product Plan Information AGENCY: National Highway Traffic Safety Administration (NHTSA), Department of Transportation (DOT). ACTION: Request for Comments SUMMARY: The purpose of this request for comments is to acquire new and updated information regarding vehicle manufacturers’ future product plans to assist the agency in analyzing the proposed passenger car and light truck corporate average fuel economy (CAFE) standards as required by the Energy Policy and Conservation Act, as amended by the Energy Independence and Security Act (EISA) of 2007, P.L. 110-140. This proposal is discussed in a companion notice published today. DATES: Comments must be received on or before [insert date 60 days after publication in the Federal Register]. ADDRESSES: You may submit comments [identified by Docket No. NHTSA-2008- 0069] by any of the following methods: • Federal eRulemaking Portal: Go to http://www.regulations.gov. Follow the online instructions for submitting comments. 1 • Mail: Docket Management Facility: U.S. Department of Transportation, 1200 New Jersey Avenue, SE, West Building Ground Floor, Room W12- 140, Washington, DC 20590. • Hand Delivery or Courier: West Building Ground Floor, Room W12-140, 1200 New Jersey Avenue, SE, between 9 am and 5 pm ET, Monday through Friday, except Federal holidays. Telephone: 1-800-647-5527. • Fax: 202-493-2251 Instructions: All submissions must include the agency name and docket number for this proposed collection of information. -
2013 KIVA Development
2013 DOE Merit Review 2013 KIVA Development David Carrington Los Alamos National Laboratory May 13, 2013 Project ID # ACE014 This presentation does not contain any proprietary, confidential, or otherwise restricted information LA-UR-13-21976 2013 DOE Overview Merit Review Timeline Barriers • Improve understanding of the fundamentals of • 10/01/09 fuel injection, fuel-air mixing, thermodynamic combustion losses, and in-cylinder combustion/ • 09/01/14 emission formation processes over a range of combustion temperature for regimes of interest • 65% complete by adequate capability to accurately simulate these processes • Engine efficiency improvement and engine- Budget out emissions reduction • Minimization of engine technology development • Total project funding to date: – User friendly (industry friendly) software, robust, accurate, more predictive, & quick meshing – 2000K – 640K in FY 12 Partners – Contractor (Universities) share ~40% • University of New Mexico- Dr. Juan Heinrich • University of Purdue, Calumet - Dr. Xiuling • Funding to date for FY13 - 210K Wang • Funding anticipated FY13 – 763K • University of Nevada, Las Vegas - Dr. Darrell W. Pepper 2 2013 DOE FY 09 to FY 14 KIVA-Development Merit Review Objectives • Robust, Accurate Algorithms in a Modular Object-Oriented code– • Relevance to accurately predicting engine processes to enable better understanding of, flow, thermodynamics, sprays, in easy to use software for moderate computer platforms – More accurate modeling requires new algorithms and their correct implementation. – Developing more robust and accurate algorithms • To understand better combustion processes in internal engines – Providing a better mainstay tool • improving engine efficiencies and • help in reducing undesirable combustion products. – Newer and mathematically rigorous algorithms will allow KIVA to meet the future and current needs for combustion modeling and engine design. -