The W Engine Concept
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Testing the System Page 1 of 4
Testing the system Page 1 of 4 Testing the system Vehicle diagnostic, testing and information system -VAS 5051B- Test sequence Coolant temperature at least 80 °C. Vehicles with automatic gearbox: selector lever in position P or N – Connect vehicle diagnostic, testing and information system -VAS 5051B- and select vehicle system “01 - Engine electronics” from list. Engine must be idling. WARNING Test equipment must always be secured on the rear seat and operated from that position by a second person. If test and measuring instruments are operated from front passenger's seat and the vehicle is involved in an accident, the person sitting in this seat could be seriously injured when the airbag is triggered. Display on -VAS 5051B-: – From list -1- select diagnostic function “04 - Basic setting”. Display on -VAS 5051B-: 1 - Enter display group – Using the keypad -2-, enter “094” to select “Display group 094” and confirm entry with the Q key. vw-wi://rl/A.en-GB.A04.5636.29.wi::37889621.xml?xsl=3 14.01.2014 Testing the system Page 2 of 4 – Activate basic setting by touching key A . Display on -VAS 5051B-: – Increase the engine speed to above 2000 rpm for approx. 10 seconds. – Check specifications in display zones -3- and -4-. Display zones 1234 Display group 94: variable valve timing, bank 1 (right-side) and bank 2 (left-side) Display xxxx rpm --- --- --- Readout Engine speed Variable valve timing Variable valve timing Variable valve timing bank 1 bank 2 Range CS-ctrl ON Test OFF Test OFF CS-ctrl OFF Test ON Test ON Syst. -
General Rules and Specifications
2018 Big Block Modifieds 358 Modifieds Sportsman Modifieds Pro Stock Super DIRTcar Series General Rules and Specifications 7575 West Winds Blvd. Concord, NC 28027 704-795-7223 www.dirtcar.com Primary DIRTcar Northeast Contacts DIRTcar Northeast Director Jeff Hachmann [email protected] 315-283-3367 DIRTcar Northeast Director of Series and Sanctioning Mike Perrotte [email protected] 704-796-4566 DIRTcar Northeast Technical Director Mark Hitchcock [email protected] DIRTcar Northeast Points & Handicapping Gary Spaid [email protected] 585-734-5959 DIRTcar Northeast Series & Race Director John Nelson, [email protected] 716-907-1905 DIRTcar Northeast Series & Race Director Doug Leonard, [email protected] DIRTcar Northeast Series & Race Director Denis Moquin, [email protected] 613-978-3475 DIRTcar Northeast Series & Race Director Dave Farney, [email protected] 315-708-4422 DIRTcar Northeast Series Manager Cory Reed, [email protected] 315-374-1168 DIRTcar Northeast Marketing John Baumes, [email protected] 518-844-2678 World Racing Group Contacts: DIRTcar Events Director Jeff Hachmann [email protected] 315-283-3367 Tracey McDaniel, Membership Coordinator [email protected] 704-795-7223 Corrie Goss, Marketing Services [email protected] 704-795-7223 Christina Cordova, Director of Communications [email protected] 704-795-7223 2018 DIRTcar Northeast General Rules and Specifications 2 Table of Contents 15.6 Weight 1.0 Definition of Terms 15.7 Body 1.1 World Racing Group Rules 15.8 Suspension 2.0 Membership -
Cylinder Deactivation: a Technology with a Future Or a Niche Application?: Schaeffler Symposium
172 173 Cylinder Deactivation A technology with a future or a niche application? N O D H I O E A S M I O U E N L O A N G A D F J G I O J E R U I N K O P J E W L S P N Z A D F T O I E O H O I O O A N G A D F J G I O J E R U I N K O P O A N G A D F J G I O J E R O I E U G I A F E D O N G I U A M U H I O G D N O I E R N G M D S A U K Z Q I N K J S L O G D W O I A D U I G I R Z H I O G D N O I E R N G M D S A U K N M H I O G D N O I E R N G E Q R I U Z T R E W Q L K J P B E Q R I U Z T R E W Q L K J K R E W S P L O C Y Q D M F E F B S A T B G P D R D D L R A E F B A F V N K F N K R E W S P D L R N E F B A F V N K F N T R E C L P Q A C E Z R W D E S T R E C L P Q A C E Z R W D K R E W S P L O C Y Q D M F E F B S A T B G P D B D D L R B E Z B A F V R K F N K R E W S P Z L R B E O B A F V N K F N J H L M O K N I J U H B Z G D P J H L M O K N I J U H B Z G B N D S A U K Z Q I N K J S L W O I E P ArndtN N BIhlemannA U A H I O G D N P I E R N G M D S A U K Z Q H I O G D N W I E R N G M D A M O E P B D B H M G R X B D V B D L D B E O I P R N G M D S A U K Z Q I N K J S L W O Q T V I E P NorbertN Z R NitzA U A H I R G D N O I Q R N G M D S A U K Z Q H I O G D N O I Y R N G M D E K J I R U A N D O C G I U A E M S Q F G D L N C A W Z Y K F E Q L O P N G S A Y B G D S W L Z U K O G I K C K P M N E S W L N C U W Z Y K F E Q L O P P M N E S W L N C T W Z Y K M O T M E U A N D U Y G E U V Z N H I O Z D R V L G R A K G E C L Z E M S A C I T P M O S G R U C Z G Z M O Q O D N V U S G R V L G R M K G E C L Z E M D N V U S G R V L G R X K G T N U G I C K O -
Lawn-Boy V-Engine Service Manual
LAWN-BOY V-ENGINE SERVICE MANUAL Table of Contents – Page 1 of 2 REFERENCE SECTION SAFETY SPECIFICATIONS - ENGINE SPECIFICATIONS SPECIFICATIONS - ENGINE FASTENER TORQUE REQUIREMENTS SPECIFICATIONS - CARBURETOR SPECIFICATIONS (WALBRO LMR-16) SPECIAL TOOL REQUIREMENTS TROUBLESHOOTING MAINTENANCE SECTION 1 WALBRO LMR-16 CARBURETOR LMR-16 CARBURETOR - IDENTIFICATION LMR-16 CARBURETOR - THEORY OF OPERATION LMR-16 CARBURETOR - GOVERNOR THEORY LMR-16 CARBURETOR - REMOVAL LMR-16 CARBURETOR - DISASSEMBLY LMR-16 CARBURETOR - CLEANING AND INSPECTION LMR-16 CARBURETOR - ASSEMBLY LMR-16 CARBURETOR - PRESETTING THE GOVERNOR LMR-16 CARBURETOR - ASSEMBLING AIR BOX TO CARBURETOR LMR-16 CARBURETOR - INSTALLATION LMR-16 CARBURETOR - FINAL CHECK LMR-16 CARBURETOR - CHOKE ADJUSTMENT LMR-16 CARBURETOR - SERVICING THE AIR FILTER LMR-16 CARBURETOR-TROUBLESHOOTING SECTION 2 PRIMER START CARBURETOR PRIMER START CARBURETOR - IDENTIFICATION PRIMER START CARBURETOR - THEORY OF OPERATION PRIMER START CARBURETOR - GOVERNOR THEORY PRIMER START CARBURETOR - REMOVAL PRIMER START CARBURETOR - DISASSEMBLY PRIMER START CARBURETOR - CLEANING AND INSPECTION PRIMER START CARBURETOR - ASSEMBLY PRIMER START CARBURETOR - INSTALLATION PRIMER START CARBURETOR - PRESETTING THE GOVERNOR PRIMER START CARBURETOR - FINAL CHECK PRIMER START CARBURETOR - SERVICING THE AIR FILTER PRIMER START CARBURETOR TROUBLESHOOTING ENGINE STARTS HARD ENGINE RUNS RICH ENGINE RUNS LEAN FUEL LEAKS FROM CARBURETOR LAWN-BOY V-ENGINE SERVICE MANUAL Table of Contents – Page 2 of 2 SECTION 3 FUEL SYSTEM FUEL -
Wärtsilä 32 PRODUCT GUIDE © Copyright by WÄRTSILÄ FINLAND OY
Wärtsilä 32 PRODUCT GUIDE © Copyright by WÄRTSILÄ FINLAND OY COPYRIGHT © 2021 by WÄRTSILÄ FINLAND OY All rights reserved. No part of this booklet may be reproduced or copied in any form or by any means (electronic, mechanical, graphic, photocopying, recording, taping or other information retrieval systems) without the prior written permission of the copyright owner. THIS PUBLICATION IS DESIGNED TO PROVIDE AN ACCURATE AND AUTHORITATIVE INFORMATION WITH REGARD TO THE SUBJECT-MATTER COVERED AS WAS AVAILABLE AT THE TIME OF PRINTING. HOWEVER, THE PUBLICATION DEALS WITH COMPLICATED TECHNICAL MATTERS SUITED ONLY FOR SPECIALISTS IN THE AREA, AND THE DESIGN OF THE SUBJECT-PRODUCTS IS SUBJECT TO REGULAR IMPROVEMENTS, MODIFICATIONS AND CHANGES. CONSEQUENTLY, THE PUBLISHER AND COPYRIGHT OWNER OF THIS PUBLICATION CAN NOT ACCEPT ANY RESPONSIBILITY OR LIABILITY FOR ANY EVENTUAL ERRORS OR OMISSIONS IN THIS BOOKLET OR FOR DISCREPANCIES ARISING FROM THE FEATURES OF ANY ACTUAL ITEM IN THE RESPECTIVE PRODUCT BEING DIFFERENT FROM THOSE SHOWN IN THIS PUBLICATION. THE PUBLISHER AND COPYRIGHT OWNER SHALL UNDER NO CIRCUMSTANCES BE HELD LIABLE FOR ANY FINANCIAL CONSEQUENTIAL DAMAGES OR OTHER LOSS, OR ANY OTHER DAMAGE OR INJURY, SUFFERED BY ANY PARTY MAKING USE OF THIS PUBLICATION OR THE INFORMATION CONTAINED HEREIN. Wärtsilä 32 Product Guide Introduction Introduction This Product Guide provides data and system proposals for the early design phase of marine engine installations. For contracted projects specific instructions for planning the installation are always delivered. Any data and information herein is subject to revision without notice. This 1/2021 issue replaces all previous issues of the Wärtsilä 32 Project Guides. Issue Published Updates 1/2021 15.03.2021 Technical data updated. -
Camshaft Deviation Codes.Pdf
AD07.61 -P-4000 -94VA Page 1 of 2 AD07.61-P-4000- Continuous camshaft adjustment - 94VA fault code description ME Angular deviation of camshafts to the crankshaft 1 Fault code 1197 Exhaust camshaft on right cylinder bank, permanent advanced ( Readout on generic scan tool) position (P0017) 1198 Exhaust camshaft on right cylinder bank, permanent retarded position (P0017) 1200 Exhaust camshaft on right cylinder bank, displacement (P0017) 1201 Exhaust camshaft on left cylinder bank, permanent advanced position (P0019) 1202 Exhaust camshaft on left cylinder bank, permanent retarded position (P0019) 1204 Exhaust camshaft on left cylinder bank, displacement (P0019) 1205 Intake camshaft on right cylinder bank, permanent advanced position (P0016) 1206 Intake camshaft on right cylinder bank, permanent retarded position (P0016) 1208 Intake camshaft on right cylinder bank, displacement (P0016) 1209 Intake camshaft on left cylinder bank, permanent advanced position (P0018) 1210 Intake camshaft on left cylinder bank, permanent retarded position (P0018) 1212 Intake camshaft on left cylinder bank, displacement (P0018) 2 Fault storage After expiry of test duration and fault Actuation of engine diagnosis Following two successive driving cycles with faults indicator lamp (EURO4) or CHECK ENGINE (MIL) malfunction indicator lamp 3 Checking frequency Continuous 4 Checked signal or status Comparison of position of the intake camshaft or exhaust camshaft to position of the crankshaft 5 Fault setting conditions 1197, 1201, 1205, 1209 - Permanent advanced position greater than a 20° crank angle 1198, 1202, 1206, 1210 - Permanent retarded position greater than a 20° crank angle 1200, 1204, 1208, 1212 - Fault if after adjustment of a camshaft the new position deviates more than a 9° crank angle from the required value. -
Modernizing the Opposed-Piston, Two-Stroke Engine For
Modernizing the Opposed-Piston, Two-Stroke Engine 2013-26-0114 for Clean, Efficient Transportation Published on 9th -12 th January 2013, SIAT, India Dr. Gerhard Regner, Laurence Fromm, David Johnson, John Kosz ewnik, Eric Dion, Fabien Redon Achates Power, Inc. Copyright © 2013 SAE International and Copyright@ 2013 SIAT, India ABSTRACT Opposed-piston (OP) engines were once widely used in Over the last eight years, Achates Power has perfected the OP ground and aviation applications and continue to be used engine architecture, demonstrating substantial breakthroughs today on ships. Offering both fuel efficiency and cost benefits in combustion and thermal efficiency after more than 3,300 over conventional, four-stroke engines, the OP architecture hours of dynamometer testing. While these breakthroughs also features size and weight advantages. Despite these will initially benefit the commercial and passenger vehicle advantages, however, historical OP engines have struggled markets—the focus of the company’s current development with emissions and oil consumption. Using modern efforts—the Achates Power OP engine is also a good fit for technology, science and engineering, Achates Power has other applications due to its high thermal efficiency, high overcome these challenges. The result: an opposed-piston, specific power and low heat rejection. two-stroke diesel engine design that provides a step-function improvement in brake thermal efficiency compared to conventional engines while meeting the most stringent, DESIGN ATTRIBUTES mandated emissions -
Methods for Heat Analysis and Temperature Field Analysis of the Insulated Diesel
DOE/NASA/0342-1 NASA CR-174783 19950008390 Methods for Heat Analysis and Temperature Field Analysis of the Insulated Diesel Phase I Progress Report Thomas Morel, Paul N. Blumberg, Edward F. Fort, and Rifat Keribar Integral Technologies Incorporated August 1984 Prepared for NATIONAL AERONAUTICSAND SPACEADMIN ISTRATION Lewis Research Center Under Grant DEN 3-342 1[__ _SPf for ! _i _,:_<,:x._ U.S. DEPARTMENT OF ENERGY L&NGLEY RESEARCHCENTER: Conservationand RenewableEnergy LIBRARYN. ASA Office of Vehicle and Engine R&D .AM__TO_".V,RG,_,_ DISCLAIMER This report was prepared as an account of work sponsored by an agency of the United States Government. Neither the United States Government nor any agency thereof, nor any of their employees, makes any warranty, express or implied, or assumes any legal liability or responsibility for the accuracy, completeness, or usefulness of any information, apparatus, product, or process disclosed, or represents that its use would not infringe privately owned rights. Reference herein to any specific commercial product, process, or service by trade name, trademark, manufacturer, or otherwise, does not necessarily constitute or imply its endorsement, recommendation, or favoring by the United States Government or any agency thereof. The views and opinions of authors expressed herein do not necessarily state or reflect those of the United States Government or any agency thereof. Printed in the United States of America Available from National Technical Information Service U.S. Department of Commerce 5285 Port Royal Road Springfield, VA 22161 NTIS price codes1 Printed copy: A12 Microfiche copy: A01 1Codes are used for pricing all publications. -
Miniature Free-Piston Homogeneous Charge Compression Ignition Engine
Chemical Engineering Science 57 (2002) 4161–4171 www.elsevier.com/locate/ces Miniature free-piston homogeneous charge compression ignition engine-compressor concept—Part I: performance estimation and design considerations unique to small dimensions H. T. Aichlmayr, D. B. Kittelson, M. R. Zachariah ∗ Departments of Mechanical Engineering and Chemistry, The University of Minnesota, 111 Church St. SE, Minneapolis, MN 55455, USA Received 18 September 2001; received in revised form 7 February 2002; accepted 18 April 2002 Abstract Research and development activities pertaining to the development of a 10 W, homogeneous charge compression ignition free-piston engine-compressor are presented. Emphasis is placed upon the miniature engine concept and design rationale. Also, a crankcase-scavenged, two-stroke engine performance estimation method (slider-crank piston motion) is developed and used to explore the in;uence of engine operating conditions and geometric parameters on power density and establish plausible design conditions. The minimization of small-scale e=ects such as enhanced heat transfer, is also explored. ? 2002 Published by Elsevier Science Ltd. Keywords: Two-stroke engine; Free-piston engine; Homogeneous charge compression ignition; Microchemical; Performance estimation; Micro-power generation 1. Introduction exist: Enhance batteries or develop miniature energy conver- sion devices. Only modest gains may be expected from the This paper is the ÿrst in a two-part series that presents re- former, consequently the latter is being vigorously pursued sults of recent small-scale engine research and development (Peterson, 2001). In particular, miniature engine-generators e=orts conducted at the University of Minnesota. Speciÿ- (Epstein et al., 1997; Yang et al. 1999; Allen et al., 2001; cally, it introduces the miniature free-piston homogeneous Fernandez-Pello, Liepmann, & Pisano, 2001) are considered charge compression ignition (HCCI) engine-compressor especially promising. -
Matching of Internal Combustion Engine
CRANFIELD UNIVERSITY BAPTISTE BONNET MATCHING OF INTERNAL COMBUSTION ENGINE CHARACTERISTICS FOR CONTINUOUSLY VARIABLE TRANSMISSIONS SCHOOL OF ENGINEERING PHD THESIS CRANFIELD UNIVERSITY SCHOOL OF ENGINEERING, AUTOMOTIVE DEPARTMENT PHD THESIS BAPTISTE BONNET MATCHING OF INTERNAL COMBUSTION ENGINE CHARACTERISTICS FOR CONTINUOUSLY VARIABLE TRANSMISSIONS SUPERVISOR: PROF. NICHOLAS VAUGHAN 2007 This thesis is submitted in partial fulfilment of the requirements for the Degree of Doctor in Philosophy. © Cranfield University, 2007. All rights reserved. No part of this publication may be reproduced without the written permission of the copyright holder . PhD Thesis Abstract ABSTRACT This work proposes to match the engine characteristics to the requirements of the Continuously Variable Transmission [CVT] powertrain. The normal process is to pair the transmission to the engine and modify its calibration without considering the full potential to modify the engine. On the one hand continuously variable transmissions offer the possibility to operate the engine closer to its best efficiency. They benefit from the high versatility of the effective speed ratio between the wheel and the engine to match a driver requested power. On the other hand, this concept demands slightly different qualities from the gasoline or diesel engine. For instance, a torque margin is necessary in most cases to allow for engine speed controllability and transients often involve speed and torque together. The necessity for an appropriate engine matching approach to the CVT powertrain is justified in this thesis and supported by a survey of the current engineering trends with particular emphasis on CVT prospects. The trends towards a more integrated powertrain control system are highlighted, as well as the requirements on the engine behaviour itself. -
HSDI Diesel Engines - Gas Exchange Optimization and the Impact on Reducing Emission
HSDI Diesel Engines - Gas Exchange Optimization and the Impact on Reducing Emission ABSTRACT All future powertrain developments must consider the primary tasks of achieving the required emission levels and CO2- values, while still providing comfort, good drivability, high reliability and affordable costs. One method for improving fuel economy in passenger vehicles that is beginning to be examined is the incorporation of downsizing. To achieve the levels of engine performance that will be required, increasing the boost pressure and/or rated speed is mandatory. When the boost pressure or the rated speed is increased, the result is an increase in the mass flow rate through the intake and exhaust ports and valves. Considering the impact of these changes, the port layout of the system has to be reanalyzed. The primary purpose of this study is to examine these effects on the port layout on a modern diesel combustion system and to present a promising concept. The study included flow measurements, PIV measurements of intake flow, CFD simulations of the flow field during intake and results from the thermodynamic test bench. One of the key aspects that needed to be examined was to demonstrate flow quality’s impact on combustion. A new port concept was developed as a result of this study that utilizes a variable valve lift to provide a highly variable swirl. This design enables a homogenous flow field in the cylinder, with excellent flow coefficient. The design also allows an increase in volumetric efficiency combined with a reduction in flow losses. INTRODUCTION The prerequisites for advanced concepts of High Speed Direct Injection (HSDI) Diesel Engines require that due to the rapidly increasing price of crude oil they must improve fuel economy and the heat-trapping ability of carbon dioxide emissions. -
Off-Road Industrial Engines MAN Engines Off-Road Diesel Engines Fordiesel Agricultural and Environmental, Construction and Special Machinery and Special Construction
Industrial engines Off-Road Off-Road Diesel engines for agricultural and environmental, construction and special machinery MAN Engines Built for everyone who wants to move things in a big way. Contents MAN diesel engines for agricultural and construction machinery Performance spectrum and applications . 4 MAN key technologies . 4 Development to meet operational requirements . 4 Easy system integration . 4 Intelligent service solutions . 4 The shared component concept . 4 Modular exhaust gas treatment kit (AGN kit) . 4 Reliability . 4 Description of engines D0834 and D0836 . 6 D2676 . 8 D3876 . 10 D2868 . 12 D2862 . 14 MAN diesel engines for agricultural and construction machinery Time and cost pressure are increasing, both in agriculture and in the construction industry. This is why reliability and economic efficiency are more important in these businesses than ever before. MAN engines are the constant factor that makes the machines reliable, both in brisk day-to-day business and in their life-cycle costs. Our MAN engines can help you move things in a big way – either as a vehicle operator or as a designer. Performance spectrum and applications MAN off-road engines with a displacement of 4.6 to 24.2 liters come with ratings ranging from 110 kW to 882 kW (150 hp to 1 200 hp). Applications include: nnAgricultural machinery nnCutters and shredders nnSpecial machinery such as nnConstruction machinery nnEnvironmental and recycling snowcats nnMobile cranes and materials technology transport MAN key technologies Development to meet operational Easy system integration Our key to your success: When de signing requirements One name – one system . MAN makes and developing an MAN off-road engine, Our concepts are off-road in the truest use of a single defined engine inter- we rely on innovative technologies such sense of the word, that is to say they face to exchange data and commands as turbo-charging using variable turbine are extraordinary .