Vehicle Over Speed Indication and Controlling System
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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. -
The Pennsylvania State University Schreyer Honors College
THE PENNSYLVANIA STATE UNIVERSITY SCHREYER HONORS COLLEGE DEPARTMENT OF MECHANICAL & NUCLEAR ENGINEERING DESIGN AND CALIBRATION OF AN ELECTRONIC FUEL INJECTION SYSTEM FOR A COMPRESSED NATURAL GAS SPARK IGNITION INTERNAL COMBUSTION ENGINE IN A HYBRID VEHICLE SAMUEL H. MILLER SPRING 2013 A thesis submitted in partial fulfillment of the requirements for a baccalaureate degree in Mechanical Engineering with honors in Mechanical Engineering Reviewed and approved* by the following: Joel Anstrom Senior Research Associate at the Larson Institute Thesis Supervisor H.J. Sommer III Professor of Mechanical Engineering Honors Adviser Daniel Haworth Professor of Mechanical Engineering Faculty Reader * Signatures are on file in the Schreyer Honors College. ! ! ! ! !"#$%!&$' The United States has been dependent on foreign oil for many years. In 2011, the United States of America imported 45% of its petroleum from other nations [1]. In addition, efforts are being made to identify more eco-friendly options for fuel to serve as gasoline alternatives. One such fuel, which could decrease the United State dependence on foreign oil while helping the environment, is natural gas. An abundance of natural gas is found in the United States, and the burning of natural gas in internal combustion engines (ICE) releases less pollution and greenhouse gas emissions than gasoline. One of the most complex parts of natural gas ICE is the electronic fuel injection system. These systems are controlled by an electronic control unit (ECU), which is essential for optimizing engine efficiency, performance and emissions. The goal of this research was to reconfigure a hybrid-electric vehicle for compressed natural gas usage. ! ! "! ! ! ! ! TABLE OF CONTENTS LIST OF FIGURES AND TABLES.......................................................................................... -
Ammonia Powered Engine
Ammonia Powered Engine A Major Qualifying Project Submitted to the faculty of Worcester Polytechnic Institute In partial fulfillment of the requirements for the Degree in Bachelor of Science In Mechanical Engineering By: ___________________________ Alexander James Baldino ___________________________ Brendan Walter Gallagher ___________________________ Hayden George Furcolo Date: 5/18/2020 Project Advisor ___________________________ Professor Robert Daniello Acknowledgements We would like to thank our project advisor Professor Robert Daniello for his knowledge and guidance throughout our entire MQP process. We would also like to thank Barbara Fuhrman of the Mechanical Engineering Office for her help in acquiring material for our project and her dedication to our success. Additionally, we would like to thank Ian Anderson and James Loiselle, as well as the entirety of the Washburn Shops staff, for their help during our manufacturing processes. 1 | P a g e Abstract Cars are a significant source of carbon emissions into the atmosphere and with a growing number of cars on the road, this is negatively affecting the atmosphere. The carbon emissions cars emit comes from the gasoline being burned in the engine. While battery/electrics provide one solution, energy density and speed of refueling are favorable with internal combustion engines. A potential candidate for replacing hydrocarbons as the fuel for combustion engines is ammonia. A molecule of ammonia is composed of one nitrogen atom and three hydrogen atoms producing nitrogen gas and water upon combustion. Neither product of combustion is harmful to our environment and the ammonia itself can be produced through “green” renewable energy processes. Using a small engine from a snow blower, we aimed to modify the engine to run off of ammonia as the fuel source. -
Fuel Intake System Intake Manifolds
Fuel Intake System Below is an overview of the fuel system intake operation Intake Manifolds An intake manifold is a system of passages which conduct the fuel mixture from the carburetor to the intake valves of the engine. Manifold design has much to do with the efficient operation of an engine. For smooth and even operation, the fuel charge taken into each cylinder should be of the same strength and quality. Distribution of the fuel should, therefore, be as even as possible. This depends greatly upon the design of the intake manifold. Dry fuel vapor is an ideal form of fuel charge, but present-day fuel prevents this unless the mixture is subjected to high temperature. If the fuel charge is heated too highly, the power of the engine is reduced because the heat expands the fuel charge. Therefore, it is better to have some of the fuel deposited on the walls of the cylinders and manifold vents. Manifolds in modern engines are designed so that the amount of fuel condensing on the intake manifold walls is reduced to a minimum. In a V-8 engine, the intake manifold is mounted between the cylinder heads. The L- head engine's manifold is bolted to the side of the block, and the I-head manifold is bolted to the cylinder head. Ram Induction Manifolds The ram induction manifold system consists of twin air cleaners, twin four-barrel carburetors and two manifolds containing eight long tubes of equal length (four for each manifold). This system was designed by the Chrysler Company to increase power output by in the middle speed range (1800-3600 rpm). -
Stratified Scavenging Two-Stroke Internal Combustion Engine and Carburetor Thereof
(19) TZZ ¥Z_T (11) EP 2 947 305 A1 (12) EUROPEAN PATENT APPLICATION (43) Date of publication: (51) Int Cl.: 25.11.2015 Bulletin 2015/48 F02M 35/10 (2006.01) F02M 35/108 (2006.01) F02B 25/22 (2006.01) F02B 33/04 (2006.01) (2006.01) (2006.01) (21) Application number: 15168726.6 F02B 63/02 F02M 9/08 F02M 19/08 (2006.01) F02B 75/02 (2006.01) (22) Date of filing: 21.05.2015 (84) Designated Contracting States: (72) Inventors: AL AT BE BG CH CY CZ DE DK EE ES FI FR GB • YAMAZAKI, Takahiro GR HR HU IE IS IT LI LT LU LV MC MK MT NL NO Tokyo, 196-0004 (JP) PL PT RO RS SE SI SK SM TR • YAMAGUCHI, Shirou Designated Extension States: Tokyo, 198-0042 (JP) BA ME • OTSUJI, Takamasa Designated Validation States: Tokyo, 190-0002 (JP) MA (74) Representative: Zimmermann & Partner (30) Priority: 21.05.2014 JP 2014105688 Patentanwälte mbB Postfach 330 920 (71) Applicant: Yamabiko Corporation 80069 München (DE) Ohme-shi Tokyo 198-8760 (JP) (54) STRATIFIED SCAVENGING TWO-STROKE INTERNAL COMBUSTION ENGINE AND CARBURETOR THEREOF (57) A carburetor achieves better emission charac- teristicswhile improving a combustionstate by increasing a delivery ratio of a stratified scavenging engine and re- ducing intake resistance. No dividing wall is provided be- tween a throttle valve 204 and a choke valve 242, and a gap 244 between the valves 204 and 242 is opened. In- take air in both of an upper region and a lower region of thechoke valve242 flows intoan air- fuelmixture passage 246 in a lower region of the fully- open throttle valve 204. -
Internal Combustion Engines and Gas Turbines
Internal Combustion Engines and Gas Turbines MODULE – I 1. INTRODUCTION: The internal combustion engine is a heat engine that converts chemical energy in a fuel into mechanical energy, usually made available on a rotating output shaft. Chemical energy of the fuel is first converted to thermal energy by means of combustion .This thermal energy raises the temperature and pressure of the gases within the engine , and the high-pressure gas then expands against the mechanical mechanisms of the engine. This expansion is converted by the mechanical linkages of the engine to a rotating crankshaft, which is the output of the engine. The crankshaft, in turn, is connected to a transmission and/or power train to transmit the rotating mechanical energy to the desired final use. i. ENGINE CLASSIFICATIONS • Types of Ignition (a) Spark Ignition (SI). An SI engine starts the combustion process in each cycle by use of a spark plug. The spark plug gives a high-voltage electrical discharge between two electrodes which ignites the air-fuel mixture in the combustion chamber surrounding the plug. In early engine development, before the invention of the electric spark plug, many forms of torch holes were used to initiate combustion from an external flame. (b) Compression Ignition (CI). The combustion process in a CI engine starts when the air- fuel mixture self-ignites due to high temperature in the combustion chamber caused by high compression. • Engine Cycle (a) Four-Stroke Cycle. A four-stroke cycle experiences four piston movements over two engine revolutions for each cycle. (b) Two-Stroke Cycle. A two-stroke cycle has two piston movements over one revolution for each cycle.