BOOST CONTROLLER ® 2650-1706-00 WARNING! the Installation of the Auto Meter Boost Controller Is Recommended Only for Experienced Technicians
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Fdsjgfd Not Imitators!
PERFORMANCE INNOVATORS FDSJGFD NOT IMITATORS! CPC TURBO M8 HANDBOOK USING GARRET TURBO FOR PROCLIMB / PROCROSS 800 Stage 2 CUTLER’S PERFORMANCE CENTER “PERFORMANCE INNOVATORS NOT IMMITATORS” CPC Turbo M8 Handbook Using Garrett Turbo For Pro Climb and Pro Cross 800’s Thank you for purchasing a CPC Pro Climb and Pro Cross Turbo Kit. Our kits are built to the highest quality standards. This handbook contains both generic and specific information regarding turbo operation and installation. This handbook also contains valuable information that will help you understand how your turbo works and how to tune your turbo powered Arctic Cat to get the most performance out of this product as well as ways to avoid potential problems and save money. CPC has been turbo charging snowmobiles since the mid 1990's with a 1993 EXT 550 model as our first project. Two years later we completed a more reliable turbo charged ZR 580 with great success. As the years followed, the Turbo kits continue to be refined. What kind of Turbo does CPC use and why? CPC uses a GT Garrett RS series ball bearing turbo. Garrett turbos have passed intensive testing for durability, safety and efficiency. Garrett GT series turbos have a higher efficiency rating which reduces heat and produces more pounds of air per minute than many other turbo manufactures. What kind of maintenance and care is required for the Garrett RS series turbo? We recommend that you use Mobile 1 synthetic 5 w 30 oil or other high quality synthetic oils. Use 0 w 30 if temps drop below -20 F. -
Engine Control Unit
Engine Control Unit João Filipe Ferreira Vicente Dissertation submitted for obtaining the degree in Master of Electronic Engineering, Instituto Superior Técnico Abstract The car used (Figure 1) has a fibreglass body and uses a Honda F4i engine taken from the Honda This paper describes the design of a fully CBR 600. programmable, low cost ECU based on a standard electronic circuit based on a dsPIC30f6012A for the Honda CBR600 F4i engine used in the Formula Student IST car. The ECU must make use of all the temperature, pressure, position and speed sensors as well as the original injectors and ignition coils that are already available on the F4i engine. The ECU must provide the user access to all the maps and allow their full customization simply by connecting it to a PC. This will provide the user with Figure 1 - FST03. the capability to adjust the engine’s performance to its needs quickly and easily. II. Electronic Fuel Injection Keywords The growing concern of fuel economy and lower emissions means that Electronic Fuel Injection Electronic Fuel Injection, Engine Control Unit, (EFI) systems can be seen on most of the cars Formula Student being sold today. I. Introduction EFI systems provide comfort and reliability to the driver by ensuring a perfect engine start under This project is part of the Formula Student project most conditions while lessening the impact on the being developed at Instituto Superior Técnico that environment by lowering exhaust gas emissions for the European series of the Formula Student and providing a perfect combustion of the air-fuel competition. -
Pressure Sensors
PRESSURE SENSORS Pressure Sensors Pressure sensors are used to measure intake manifold pressure, atmospheric pressure, vapor pressure in the fuel tank, etc. Though the location is different, and the pressures being measured vary, the operating principles are similar. Page 1 © Toyota Motor Sales, U.S.A., Inc. All Rights Reserved. PRESSURE SENSORS Manifold Absolute Pressure (MAP) Sensor In the Manifold Absolute Pressure (MAP) sensor there is a silicon chip mounted inside a reference chamber. On one side of the chip is a reference pressure. This reference pressure is either a perfect vacuum or a calibrated pressure, depending on the application. On the other side is the pressure to be measured. The silicon chip changes its resistance with the changes in pressure. When the silicon chip flexes with the change in pressure, the electrical resistance of the chip changes. This change in resistance alters the voltage signal. The ECM interprets the voltage signal as pressure and any change in the voltage signal means there was a change in pressure. Intake manifold pressure is a directly related to engine load. The ECM needs to know intake manifold pressure to calculate how much fuel to inject, when to ignite the cylinder, and other functions. The MAP sensor is located either directly on the intake manifold or it is mounted high in the engine compartment and connected to the intake manifold with vacuum hose. It is critical the vacuum hose not have any kinks for proper operation. Page 2 © Toyota Motor Sales, U.S.A., Inc. All Rights Reserved. PRESSURE SENSORS The MAP sensor uses a perfect vacuum as a reference pressure. -
EVC 7 Manual 01 Outline 2020 02 27
£ 10)1\f-£00917 WI-£ ·,al\ Y�Ef'Z 1fOZOZ 00-00Z00)1-IU903 The 7th generation 0 --ffe.J..[1t�=1�==-t'J=l?}t/�'M':::lc 'c;\-::;,-::?,1t'.,t�,q(f::J cp !:!::(�.=' 0 , 1�?-t>!:J::(¥:.=-J., 1�::J11fco �ti� '�JF-tc.t-1::J-fi'�f,f�J:I:� 0 , 1�?./-)J..Ct'1-::1-r--e�f-;fj..�::J4!!&�.--fl t[{_ 4!!+1-MllJr 0 �- , 1�?./-)J..11*�}::J���J�j..� "fl+J.µ.}21Jr ELECJRON/C VALVE CONJROLLER Instruction anual Product EVC7 Use Boost Controller- Automotive Turbocharged Engine Application Vehicle that operates on a DC 12V negative ground. Part No. 45003-AK013 · A fuel-ignition Correction device (e.g. HKS F-CON etc) is required in order to use this product. • Hose set is required in order to install this product to a vehicle with poppet valve, twin turbo engine, or 4mm hose piping. Remarks Hose set is available separately. ·When you increase the boost, some vehicles will have a fuel cut. When the fuel cut is released, be sure to use the fuel increase device together. H3110HLNO:J 3A1VA :JINOHL:J313 Installation should be performed by a professional. Prior to installation and use, thoroughly read the instruction manual. Retain this instruction manual for later reference. E05121 K00200-00 February, 2020 Ver. 3-1.01 45003-AK0l 3 Introduction E fO)l\f-EOOSI> HKS EVC7 Read this instruction manual prior to installation to ensure safe and correct usage and optimal product performance, The HKS EVC7 enables the adjustment of the boost setting from inside the vehicle. -
POLESTAR Systems
POLE STAR Systems Engine Management Systems Overview: The POLE STAR HS engine management Although originally developed for the Mini A- system is a low cost yet highly sophisticated Series engine the systems can now be used on system, ranging from the basic 2D ignition-only virtually any engine including high revving system up to the full 3D Turbo Fuel Injection motorbike engines. The systems features System. include, • Supports up to 8 cylinders and 4 injector drivers • Fully sequential 4 cylinder operation supported with cam sensor • Special sequential twin-point fuel injection mode specifically designed for the A-Series engine (requires cam sensor) • Single point mode (multi-injector) • Low cost ignition only distributor-less versions also available • Direct crankshaft trigger for greater accuracy. Supports standard 36-1 trigger wheel or existing POLE STAR sensor and disk • Accurate control of ignition timing and fuelling. Timing/Fuelling adjusted with 8 load sites at every 500 rpm from 0-15000rpm with full interpolation. • Optional closed-loop fuelling with wideband lambda input • Integral ‘smooth-cut’ rev limiter • Optional ‘Boost Retard’ feature with integral MAP sensor for Turbo engines POLE STAR Systems, 31 Taskers Drive, Anna Valley, Andover, Hants, SP11 7SA web: www.polestarsystem.com Tel: 01264-333034 POLE STAR Systems depending on the system type. These are typically Details: a throttle position sensor, MAP sensor, water temperature sensor and inlet air temperature Originally developed and tested in conjunction sensor, usually the ECU canbe calibrated to use an with Bryan/Neil Slark of Slark Race Engineering engines existing temperature sensors. and Jon Lee of LynxAE using their dyno facilities. -
Developments in Precision Power Train Sensors
109 Hitachi Review Vol. 63 (2014), No. 2 Developments in Precision Power Train Sensors Keiji Hanzawa OVERVIEW: The fuel economy and emissions performance demands on Shinobu Tashiro vehicle power trains are becoming more stringent for reasons relating Hiroaki Hoshika to global environmental protection and the rising price of oil. There has also been a change in thinking on the measurement of emissions and Masahiro Matsumoto fuel economy toward allowing for conditions where the temperature and humidity are closer to real driving conditions. Other changes include the electrifi cation of power trains, such as in hybrid vehicles, and improvements in the running effi ciency of internal combustion engines that result in more frequent use of engine operating modes in which sensor operation is more diffi cult, such as the Atkinson cycle. Hitachi Automotive Systems, Ltd. is supporting ongoing progress in power train control by making further improvements in sensor accuracy. INTRODUCTION Automotive power trains have made rapid progress HITACHI supplies customers around the world with on electrifi cation and reducing fuel consumption in a variety of systems for the driving, cornering, and recent years. This article describes advances in the braking of vehicles. By using a range of different performance of the sensors used in these power trains, sensors to determine conditions in the power train, looking at micro electromechanical system (MEMS) vehicle body movements, and what is happening air fl ow sensors that reduce the error in intake pulsation, around the vehicle, these systems ensure a driving the integration of air intake relative humidity sensors experience that is safe and comfortable, and that is and pressure sensors, and the adoption of digital signal conscious of the global environment (see Fig. -
Cranfield University T Fong Maf to Map Based Engine
CRANFIELD UNIVERSITY T FONG MAF TO MAP BASED ENGINE LOAD ANALOGY CONVERSION SCHOOL OF APPLIED SCIENCES MSc THESIS CRANFIELD UNIVERSITY SCHOOL OF APPLIED SCIENCES MSc THESIS Academic Year 2007-2008 T FONG MAF to MAP based engine load analogy conversion Supervisor: J Nixon September 2008 This thesis is submitted in partial 40% weighting fulfilment of the requirements for the Degree of Motorsport Engineering and Management © Cranfield University 2008. All rights reserved. No part of this publication may be reproduced without the written permission of the copyright owner. ii Abstract In motorsport, high engine power output and engine responsiveness are often desired in order to gain competition advantage. The engine tuner will normally upgrade the standard vehicle with aftermarket components such as a higher rating turbo, a longer duration camshafts, and an exhaust system. As a result of the modifications, some of the standard sensors/actuators are not able to work efficiently. For example, air reversal flow and venting of excess air pressure caused by the aftermarket tuning devices can affect the reading accuracy of the mass air flow (MAF) sensor. This thesis is to develop an Engine Control Unit (ECU) system, which will replace the MAF sensor with a manifold absolute pressure (MAP) sensor to calculate the air flow into the engine. Enduring Solution Limited (ESL) seeks to develop the MAP based system into their existing programmable ECU, thus improve their market position. The challenge of the newly developed system is to be economically viable by minimising hardware and software alterations. The approach is to modify and correlate the load analogy in the system embedded code, while retaining the other comprehensive code designed by the original manufacturer. -
G-Force2 Instuctions
GFB Electronic boost controller instruction manual MENU SCRAMBLE BOOST Go Fast Bits P/L Ph: +61 (0)2 9534 0099 P.O. Box 1017 Fax: +61 (0)2 9534 3999 Riverwood NSW 2210 Email: [email protected] Australia Web: www.gfb.com.au contents Intro About the G-Force II 2 Installation Wiring Diagram 3 Solenoid Valve Installation Diagram 4 Menu Navigation Menu Structure 5 Boost Presets 6 Setting the Boost Pressure Duty Cycle 7 Gain 8 Sensitivity 9 Controller Functions Scramble Boost 10 Overboost 11 Peak Hold 11 Display Setting - Units of Pressure 12 Input Setup 12 Colour Settings 13 Additional Info Tips 14 Troubleshooting 15 Tech 16 Warranty 16 about the g force ii The GFB G-Force II boost controller is designed to bring on boost as fast and accurately as possible on a turbocharged vehicle. It incorporates an advanced and unique boost control strategy that allows the user fine control over the peak boost, rise rate, and closed-loop correction. The G-Force II also features a new user interface, making menu navigation and setup as fast and simple as possible. Features at a glance: ?6 individually programmable boost preset memories, selectable on-the-fly ?Closed-loop correction - helps prevent boost variations ?New scramble boost strategy - increase or decrease boost for a certain amount of time at the push of a button ?Overboost protection - shuts down the solenoid and flashes a warning if boost goes too high ?Peak hold display ?Real-time boost/vacuum gauge display - in BAR, kPa, or PSI ?External input - can be used to activate scramble or select boost memories remotely ?Adjustable button colours - tie in with the car’s existing lighting 91.5mm Installing the Head Unit The G-Force II casing is a ½ DIN size, allowing to be MENU mounted into one half of a standard stereo slot. -
Holley GM LS7 Street Single-Plane Intake Manifold Kits
Holley GM LS7 Street Single-Plane Intake Manifold Kits 300-269 / 300-269BK LS7 Street Single-Plane Intake Manifold, Port-EFI W/Fuel Rails 300-270 / 300-270BK LS7 Street Single-Plane Intake Manifold, Carbureted/TB EFI INSTALLATION INSTRUCTIONS 199R11701 IMPORTANT: Before installation, please read these instructions completely. APPLICATIONS: The Holley LS Street single-plane intake manifolds are designed for GM LS7 engines used in retrofit engine installations into older classic/high performance cars and trucks. This product is intended for carbureted, throttle body EFI, or port EFI applications. The LS Street single-plane intake manifolds are produced for street and performance engine applications, 5.3 to 6.2+ liter displacement, and maximum engine speeds of 6000-7000 rpm, depending on the engine combination. The Street single-plane design provides the lowest carburetor/throttle body flange height possible while providing maximum performance to 7000 rpm. These intake manifolds are sold for (pre-emissions control) applications only and will not accept stock components and hardware. EMISSIONS EQUIPMENT: Holley LS Street single-plane intake manifolds do not accept any emission-control devices. This part is not legal for sale or use for motor vehicles with pollution-controlled equipment. IGNITION CONTROL: For intake manifold P/N’s 300-270 and 300-270BK, retrofit carbureted or throttle body EFI applications, ignition control will need to be accomplished with a separate ignition control module. It is recommended to use an MSD 6LS ignition controller, MSD P/N 6012 for LS7 (58 tooth crank trigger engines). The MSD ignition controller will function with the OE crank trigger, cam timing sensor, and coils. -
Grimmspeed 3 Port Boost Control Solenoid Installation Instructions 2002+ Subaru WRX/Sti/LGT/FXT
GrimmSpeed 3 Port Boost Control Solenoid Installation Instructions 2002+ Subaru WRX/STi/LGT/FXT ***Image above is a generic photo, your EBCS may look different*** All GrimmSpeed products are intended for Off-Road use only. Park your vehicle on a level surface. Fully engage the parking brake and put wheel stops on the front and rear wheels to keep the vehicle from rolling. Warning (read before installing): Before moving forward with the setups outlined below, insure that you have the experience and confidence to properly tune your car. If not, please consult a tuning professional. Without a proper tune you can overboost and damage your engine. Under no circumstances is the GrimmSpeed Solenoid to be used in any applications where failure of the valve to operate as intended could jeopardize the safety of the operator or any other person or property. Note! You must tune for this hardware! Using stock or off-the-shelf EM with a 3-port solenoid installed in interrupt mode will result in overboosting! A. Purpose The benefits of this upgrade are faster spool, ability to hold higher boost, and better control over boost. A side benefit of the improved boost control is the ability to reach higher target boost levels in the low (1st and 2nd) gears. Grimmspeed 1 B. Technical Background A BCS is a binary device – i.e. it is either on (energized), or off. In the context of the Subaru device, when the BCS is energized, air is allowed to pass through the device, while when it is off, the air flow is cut. -
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). -
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..........................................................................................