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4.6L/5.4L Sohc Modular ( 2 Valve ) Mechanical Flat
4.6L/5.4L SOHC MODULAR (2 VALVE ) MECHANICAL FLAT TAPPET Ford Low Lift Design 1994-1998 (Early Model Cylinder Head) Advertised Duration Gross Lift Suitable Description Part Lobe Duration @ .050" Lobe Lift (1.8) Component Number Sep Intake Exhaust Intake Exhaust Intake Exhaust Intake Exhaust Kit FACTORY OEM SPECS (1994-98) Stock 233° Lobe 242° 186° Lobe 191° Stock .256" .259" .461" .466" 242° Valve 254° 202° Valve 207° STAGE 1 62811-2 252° Lobe 256° 204° Lobe 208° 84706 .296" .296" .532" .532" Hot street profi le. Emphasis on mid range. Spring recommended. RPM Range: 1500 to 6000+ on 4.6L, 5.4L will be lower MTO 114° 266° Valve 270° 220° Valve 224° 84707 STAGE 2 62812-2 258° Lobe 258° 212° Lobe 212° 84706 114° .296" .296" .532" .532" Designed specifi cally for supercharger applications for street use. RPM Range: 1750 to 6500+ on 4.6L, 5.4L will be lower MTO 272° Valve 272° 230° Valve 230° 84707 STAGE 3 62813-2 258° Lobe 258° 212° Lobe 212° 114° Designed specifi cally for supercharger applications for street use. RPM Range: 1750 to 6500+ on 4.6L, 5.4L will be lower MTO 272° Valve 272° 230° Valve 230° CUSTOM GROUND 4.6L/5.4L CAMS 00080-2 Special order custom ground profi les available for an additional charge. Proprietary and confi dential profi les also Refer to www.crower.com for available. camshaft recommendation Note: These cams use .000" intake and exhaust valve lash. NOTE: These cams require aftermarket cam bolt kit #86053-2. The factory bolt WILL NOT work. -
The Achates Power Opposed-Piston Two-Stroke Engine
Gratis copy for Gerhard Regner Copyright 2011 SAE International E-mailing, copying and internet posting are prohibited Downloaded Wednesday, August 31, 2011 08:49:32 PM The Achates Power Opposed-Piston Two-Stroke 2011-01-2221 Published Engine: Performance and Emissions Results in a 09/13/2011 Medium-Duty Application Gerhard Regner, Randy E. Herold, Michael H. Wahl, Eric Dion, Fabien Redon, David Johnson, Brian J. Callahan and Shauna McIntyre Achates Power Inc Copyright © 2011 SAE International doi:10.4271/2011-01-2221 technical challenges related to emissions, fuel efficiency, cost ABSTRACT and durability - to name a few - and these challenges have Historically, the opposed-piston two-stroke diesel engine set been more easily met by four-stroke engines, as demonstrated combined records for fuel efficiency and power density that by their widespread use. However, the limited availability of have yet to be met by any other engine type. In the latter half fossil fuels and the corresponding rise in fuel cost has led to a of the twentieth century, the advent of modern emissions re-examination of the fundamental limits of fuel efficiency in regulations stopped the wide-spread development of two- internal combustion (IC) engines, and opposed-piston stroke engine for on-highway use. At Achates Power, modern engines, with their inherent thermodynamic advantage, have analytical tools, materials, and engineering methods have emerged as a promising alternative. This paper discusses the been applied to the development process of an opposed- potential of opposed-piston two-stroke engines in light of piston two-stroke engine, resulting in an engine design that today's market and regulatory requirements, the methodology has demonstrated a 15.5% fuel consumption improvement used by Achates Power in applying state-of-the-art tools and compared to a state-of-the-art 2010 medium-duty diesel methods to the opposed-piston two-stroke engine engine at similar engine-out emissions levels. -
Subject: Supplement to Upper Engine and Fuel Injector Cleaner Label Models: All GM Vehicles Equipped with a Gasoline Engine
7/11/2018 #PIP4753: Supplement To Upper Engine And Fuel Injector Cleaner Label - (Dec 11, 2009) • 2003 GMC Truck Yukon 4WD • MotoLogic 2003 Yukon 4WD Report a problem with this article Subject: Supplement to Upper Engine and Fuel Injector Cleaner Label All GM Vehicles Models: Equipped with a Gasoline Engine The following diagnosis might be helpful if the vehicle exhibits the symptom(s) described in this PI. Condition/Concern: Some service procedures, service bulletins, or PIs may advise to decarbon the engine with GM Upper Engine and Fuel Injector Cleaner to remove valve deposits but the label that is on the back of the bottle does not include any instructions that explain how to use the cleaner. Recommendation/Instructions: If a service procedure, service bulletin, or PI does not include decarboning instructions and the GM Vehicle Care 3 Step Induction Cleaning Kit (E-957-001) is not available, the guidelines below supplement the label and explain how the cleaner can be used to clean the intake valves: Important: Extreme care must be taken not to hydrolock the engine when inducing the cleaner. If too much cleaner is induced at too low of a RPM, or if you force the engine to stall by inducing too much cleaner at once, the engine may hydrolock and bend a connecting rod(s). 1. In a well-ventillated area with the engine at operating temperature, slowly/carefully induce a bottle of GM Upper Engine and Fuel Injection Cleaner into the engine with RPM off of idle enough to prevent it from stalling (typically around 2,000 RPM or so). -
Simulation Approaches for the Solution of Cranktrain Vibrations Pavel Novotný, Václav Píštěk, Lubomír Drápal, Aleš Prokop
Simulation Approaches for the Solution of Cranktrain Vibrations PaveL NOVOTNÝ, VÁCLav PíštěK, LUBOMÍR DRÁPAL, ALEš PROKOP 10.2478/v10138-012-0006-8 SIMULATION APPROACHES FOR THE SOLUTION OF CRANKTRAIN VIBRATIONS PAVEL NOVOTNÝ, VÁCLAV PíštěK, LubOMÍR DRÁPAL, ALEš PROKOP Institute of Automotive Engineering, Brno University of Technology, Technická 2896/2, 616 69 Brno, Czech Republic Tel.: +420 541 142 272, Fax: +420 541 143 354, E-mail: [email protected] SHRNUTÍ Vývoj moderních pohonných jednotek vyžaduje využívání pokročilých výpočtových metod, nutných k požadovanému zkrácení času tohoto vývoje společně s minimalizací nákladů na něj. Moderní výpočtové modely jsou stále složitější a umožnují řešit mnoho různých fyzikálních problémů. V případě dynamiky pohonných jednotek a životnosti jejich komponent lze využít několik různých přístupů. Prvním z nich je přístup zahrnující samostatné řešení každého subsystému pohonné jednotky. Druhý přístup využívá model pohonné jednotky obsahující všechny hlavní subsystémy, jako klikový mechanismus, ventilový rozvod, pohon rozvodů nebo vstřikovací čerpadlo, a řeší všechny tyto subsystémy současně i s jejich vzájemným ovlivněním. Cílem článku je pomocí vybraných výsledků prezentovat silné a slabé stránky obou přístupů. Výpočty a experimenty jsou prováděny na traktorovém vznětovém šestiválcovém motoru. KlíčOVÁ SLOVA: POHONNÁ JEDNOTKA, DYNAMIKA, VIBRACE, KLIKOVÝ mechANISMUS, NVH, MKP ABSTRACT The development of modern powertrains requires the use of advanced CAE tools enabling a reduction in engine development times and costs. Modern computational models are becoming ever more complicated and enable integration of many physical problems. Concentrating on powertrain dynamics and component fatigue, a few basic approaches can be used to arrive at a solution. The first approach incorporates a separate dynamics solution of the powertrain parts. -
PDF of Catalog
Edition rd The Power Behind The Power 3 Marine & Industrial Accessories Guide Headquarters New England Carolinas Great Lakes 2365 Route 22, West 48 Leona Drive 4500 Northchase Pkwy., NE 1270 Kyle Court Union, NJ 07083 Middleborough, MA 02346 Wilmington, NC 28405 Wauconda, IL 60084 (908) 964-0700 (508) 946-9200 (910) 792-1900 (847) 526-9700 Fax: (908) 687-6725 Fax: (508) 946-0779 Fax: (910) 792-6266 Fax: (847) 526-9708 [email protected] [email protected] [email protected] [email protected] (800) MAC K-E N G • w w w.m a c k bo ring.c om • (8 00 ) MA C K-FAX TO OUR FRIENDS A Reputation Built On Dependable Service Since 1922 Dear Friends: As we enter into our 84th year in business, we still maintain the core values upon which Mack Boring was founded by our grandfather, Ed McGovern, Sr. Quality, Strong Support, Engineered Solutions, Superior Customer Service, and Added Value to the products we supply, has been the Mack Boring way. Mack Boring and the McGovern Family stand for Quality. We provide quality solutions, backed by quality support – with no compromise, to the challenges our customers face every day, and deliver high quality prod- ucts, services and resources. We hire high quality personnel. Mack Boring relentlessly strives to provide superior support in the form of friendly, technically-savvy customer service representatives in the field, or on the telephone when you call for parts or whole-goods. If you are performing a start-up or an application review, we will support your needs. -
Your Vacuum Gauge Is Your Friend
WRENCHIN’ @ RANDOM YOUR VACUUM GAUGE IS YOUR FRIEND Two Essential Diagnostic Tools No Hot Rodder Should Be Without, and How to Use Them Marlan Davis hI’ve been answering read- ers’ Pit Stop tech questions for decades, explaining how to improve performance, troubleshoot pesky problems, or recommend a better combina- tion. Yet rarely do any of these problem- solving requests include information on the problem combo’s vacuum reading. That’s unfor- tunate, as [Above: Two essential diagnostic tools no hot rodder should be with- vacuum out, from left: a Mityvac handheld can tell vacuum pump for testing vacuum you a heck of a lot about an consumers (some models will even engine’s condition, without the aid in brake bleeding), and a large, easy-to-read vacuum gauge like need to invest in a bunch of this one by OTC (this model also high-tech diagnostic tools. includes a pressure gauge for even So what’s the deal on more test possibilities). vacuum? Consider an internal- [Left: Knowing how to use a combustion engine as basically vacuum gauge is the key to a giant air pump that operates diagnosing many performance under the principles of pres- problems. It aids in tuning your sure differential. The difference motor to the tip of the pyramid. It even helps diagnose problems not between normal atmospheric seemingly engine-related, such as pressure (14.7 psi at sea level a weak power-brake system. Add at standard temperature and one to your toolbox today. pressure) and how hard this “pump” sucks under various engine-management system). -
Service Table of Limits and Torque Value Recommendations
SERVICE TABLE OF LIMITS AND TORQUE VALUE RECOMMENDATIONS NOTICE The basic Table of Limits, SSP-1776 has been completely revised and reissued herewith as SSP-1776-5. It is made up of the following four parts, each part contains five sections. PART I DIRECT DRIVE ENGINES (Including VO and IVO-360) PART II INTEGRAL ACCESSORY DRIVE ENGINES PART III GEARED ENGINES PART IV VERTICAL ENGINES (Excluding VO and IVO-360) SECTION I 500 SERIES CRANKCASE, CRANKSHAFT & CAMSHAFT SECTION II 600 SERIES CYLINDERS SECTION III 700 SERIES GEAR TRAIN SECTION IV 800 SERIES BACKLASH (GEAR TRAIN) SECTION V 900 SERIES TORQUE AND SPRINGS This publication supersedes and replaces the previous publication SSP-1776-4. To make sure that SSP-1776-5 will receive the attention of maintenance personnel, a complete set of pages for the book is sent to all registered owners of Overhaul Manuals. These recipients should remove all previous Table of Limits material from the Overhaul Manual and discard. SSP-1776-5 April 13, 2020* * - Indicates cut-off date for data retrieved prior to publication. ©2020 by Lycoming “All Rights Reserved” This page intentionally left blank. INTRODUCTION SERVICE TABLE OF LIMITS This Table of Limits is provided to serve as a guide to all service and maintenance personnel engaged in the repair and overhaul of Lycoming Aircraft Engines. Much of the material herein contained is subject to revision; therefore, if any doubt exists regarding a specific limit or the incorporation of limits shown, an inquiry should be addressed to the Lycoming factory for clarification. DEFINITIONS Ref. (1st column) The numbers in the first column headed “Ref.” are shown as a reference number to locate the area described in the “Nomenclature” column. -
Camshaft Installation and Degreeing Procedure
1 INSTRUCTIONS Camshaft Installation and Degreeing Procedure Thank you for choosing COMP Cams® products; we are proud to be your manufacturer of choice. Please read this instruction booklet carefully before beginning installation and also take a moment to review the included limited warranty information. This instruction booklet is broken down into several categories for ease of use. Some of the topics may not apply to every application, but all of the information will be very beneficial during the cam installation process. For step-by-step visual detail, it is recommended to watch the COMP Cams® DVD “The Proper Procedure to Install and Degree a Camshaft” (Part #190DVD). If you have any questions or problems during the installation, please do not hesitate to contact the toll free CAM HELP® line at 1-800-999-0853, 7am to 8pm CST Monday through Friday, 9am to 4pm CST Saturday. Important: In order for your new COMP Cams® camshaft to be covered under any warranty, you must use the recommended COMP Cams® lifters and valve springs. Failure to install new COMP Cams® lifters and valve springs with your new cam can cause the lobes to wear excessively and cause engine failure. If you have any questions about this application, please contact our technical department immediately. Camshaft Installation Procedure 1. Prepare a clean work area and assemble the tools needed for the camshaft installation. It is suggested to use an automotive manual to help determine which items must be removed from the engine in order to expose the timing chain, lifters and camshaft. A good, complete automotive manual will save time and frustration during the installation. -
VVT (Variable Valve Timing): Motion of Cam Phasing Device
MULTIDISCIPLINARY UNIVERSITY 1962 2013 11 Faculties Faculty of Mechanics and Technology, Faculty of Electronics, Communications and Computers, Faculty of Sciences, Faculty of Mathematics, Faculty of Letters, Faculty of Social Sciences, Faculty of Economics, Faculty of Law and Administration, Faculty Physical Education and Sports, Faculty of Theology, Faculty of Education Sciences ~ 12 000 students in bachelor and master degrees, ~ 200 PhD students, 2013 Teaching & Research personal ( ~ 600 persons) o r g a n i z e THE ONE DAY SCIENTIFIC WORKSHOP e n t i t l e d Variable Valve Actuation (VVA). A technique towards more efficient engines 18 April 2013 University of Pitesti, Romania Amphitheatre CC1, B-dul Republicii nr. 71, Pitesti OPENING SPEECHES Mihai BRASLASU – Vice Rector of the University of Pitesti, Romania Thierry MANSANO – Head of Engine Calibration Department of Renault Technologie Roumanie (DCMAP - RTR) Pierre PODEVIN – Cnam Paris, LGP2ES, EA21, France. Co-organizer Adrian CLENCI – Head of Automotive and Transports Department – University of Pitesti, Romania. Organizer o r g a n i z e THE ONE DAY SCIENTIFIC WORKSHOP e n t i t l e d Variable Valve Actuation (VVA). A technique towards more efficient engines 18 April 2013 University of Pitesti, Romania Amphitheatre CC1, B-dul Republicii nr. 71, Pitesti PROGRAMME 10h00 – 11h00: Giovanni CIPOLLA, Politecnico di Torino, Italy, former GM Powertrain. Variable Valve Actuation (VVA): why? 11h00 – 12h00: Eduard GOLOVATAI SCHMIDT, Schaeffler Technologies AG, Germany. Consistent Enhancement of Variable Valve Actuation (VVA) 12h00 – 13h30: Lunch Break 14h00 – 15h00: Stéphane GUILAIN, Renault France, Powertrain Design and Technologies Division. VVT/VVA and Turbochargers: which synergies can we expect from these technologies? 15h00 – 16h00: Hubert FRIEDL, AVL GmbH Austria, Powertrain Systems Passenger Cars. -
Introduction to Engine Valvetrains List of Chapters
Introduction to Engine Valvetrains List of Chapters Chapter 1 Introduction and 2.3.5 Variable Valve Chapter 3 Valvetrain Components Overview of Engines Actuation by Cam 3.1 Overview 1.1 Engine Fundamentals Phasing and Variable 3.2 Valves 1.1.1 Definition of an Engine Lift 3.2.1 Valve Nomenclature 1.1.2 Types of Internal 2.3.6 Variable Valve and Construction Combustion Engines Actuation by Varying 3.2.2 Valve Operating 1.1.3 Typical Internal the Rocker Ratio Characteristics Combustion Engine 2.4 Variable Valve Actuation— 3.2.3 Valve Design Structure Camless System 3.2.4 Valve Materials 1.2 Principles of the Four-Stroke 2.4.1 Electromagnetic Valve 3.3 Cams Combustion Cycle Actuation 3.3.1 Cam Nomenclature and 1.2.1 Spark Ignition Engines 2.4.2 Electrohydraulic Valve Design Considerations 1.2.2 Compression Ignition Actuation 3.3.2 Cam Profile Engines 2.4.3 Comparison of Characteristics 1.3 Two-Stroke Engines Various Variable Valve 3.3.3 Cam Profile Design 1.4 Engine Displacement and Actuation Systems 3.3.4 Considerations in Cam Compression Ratio 2.5 Engine Brake and Valvetrains Profile Determination 1.5 Engine Performance 2.6 Types of Valvetrain 3.3.5 Lightweight Cam Design 1.5.1 Torque 2.6.1 Type I Valvetrain— 3.3.6 Cam Lobe Surface 1.5.2 Horsepower Direct Acting, Finishes and Tolerances 1.6 Internal Combustion Engine Overhead Cam 3.3.7 Cam Materials Efficiency 2.6.2 Type II Valvetrain—End- 3.4 Valvetrain Lash Compensators 1.6.1 Mechanical Efficiency Pivot Rocker Arm, 3.4.1 Lash and Mechanical 1.6.2 Thermal Efficiency Overhead Cam Lash Adjusters -
Contact Stress Analysis of Engine Speed on Cam- Tappet Pair
U.P.B. Sci. Bull., Series D, Vol. 80, Iss. 3, 2018 ISSN 1454-2358 CONTACT STRESS ANALYSIS OF ENGINE SPEED ON CAM- TAPPET PAIR Wu WENJIANG1, Long HAICHAO2, Zheng MINGJUN3, Gao ZHANFENG4*, Zhang XIAOLEI5 The cam-tappet friction pair of the valve train is one of the three major friction pairs of the engine. The contact stress between the cam and the tappet has an important influence on the fatigue life of the valve train. Taking a certain type diesel engine as the research object, a single mass motion model and computational model of the engine valve train were established. According to the Hertz theory, the kinetic equation of the cam-tappet friction pair was established. Then, the contact stress between the cam and the tappet was simulated by using the multi-body dynamics simulation software ADAMS respectively for the engine running at idling speed, rated speed and over-speed condition. The load history of the cam-tappet contact stress varying with time at different engine speeds was obtained. The research results have important reference value for further optimized design and improving the performance of the valve train. Keywords: Engine Speed, Cam-Tappet, Contact Stress, ADAMS 1. Introduction Cam-tappet is a pair of very important and sensitive friction pair in the valve train [1]. The engine usually works chronically in the harsh environments such as high temperature, high speed, pressure change, so the valve will be worn seriously after a period of time. As one of the three major friction pairs of the engine, the wear of the cam-tappet will not only destroy the valve movement laws and affect the ventilation performance of the valve, but also increase the noise during engine operation and reduce engine reliability [2]. -
19FFL-0023 2-Stroke Engine Options for Automotive Use: a Fundamental Comparison of Different Potential Scavenging Arrangements for Medium-Duty Truck Applications
Citation for published version: Turner, J, Head, RA, Chang, J, Engineer, N, Wijetunge, RS, Blundell, DW & Burke, P 2019, '2-Stroke Engine Options for Automotive Use: A Fundamental Comparison of Different Potential Scavenging Arrangements for Medium-Duty Truck Applications', SAE Technical Paper Series, pp. 1-21. https://doi.org/10.4271/2019-01-0071 DOI: 10.4271/2019-01-0071 Publication date: 2019 Document Version Peer reviewed version Link to publication The final publication is available at SAE Mobilus via https://doi.org/10.4271/2019-01-0071 University of Bath Alternative formats If you require this document in an alternative format, please contact: [email protected] General rights Copyright and moral rights for the publications made accessible in the public portal are retained by the authors and/or other copyright owners and it is a condition of accessing publications that users recognise and abide by the legal requirements associated with these rights. Take down policy If you believe that this document breaches copyright please contact us providing details, and we will remove access to the work immediately and investigate your claim. Download date: 27. Sep. 2021 Paper Offer 19FFL-0023 2-Stroke Engine Options for Automotive Use: A Fundamental Comparison of Different Potential Scavenging Arrangements for Medium-Duty Truck Applications Author, co-author (Do NOT enter this information. It will be pulled from participant tab in MyTechZone) Affiliation (Do NOT enter this information. It will be pulled from participant tab in MyTechZone) Abstract For the opposed-piston engine, once the port timing obtained by the optimizer had been established, a supplementary study was conducted looking at the effect of relative phasing of the crankshafts The work presented here seeks to compare different means of on performance and economy.