VU Motorsports Intake/Exhaust Team

Slides:



Advertisements
Similar presentations
F1-Z Super Charger Turbine. F1-Z Turbo Supercharger Turbine (Performance Force Flow Turbine Fuel Saver) TK T101 The impellor of the Force Flow Turbine.
Advertisements

Intake & Exhaust Team James Hogge Rebekah McNally Alisa Phillips Henos Woldegiorgis Upright Team Lloyd Outten Joseph Perry Josh Carroll Taylor Watkins.
Four Stroke SI Engine Stroke 1: Fuel-air mixture introduced into cylinder through intake valve Stroke 2: Fuel-air mixture compressed.
Engine Terminology Engine Measurement Lesson 8 March 2008.
 A cylinders displacement is the volume of the cylinder when the piston is at BDC.  It is the sum of the displacement of each cylinder.  It is.
Intake & Exhaust Team James Hogge Rebekah McNally Alisa Phillips Henos Woldegiorgis Front Upright Team Lloyd Outten Joseph Perry Rear Upright Team Josh.
Interest Approach Identify the major systems of an engine.
Intake and Exhaust Manifold Design: Part 1
Ub8 Part 1.
Four Stroke Cycle Engine
Lesson 3: Reciprocating Engine Theory Of Operation
Reciprocating engines, Superchargers,Propellers Lecture 9 Chapter 4.
Turbochargers ure=related.
© 2012 Delmar, Cengage Learning Intake and Exhaust Systems/ Turbochargers and Superchargers Chapter 42.
1. Objectives 2. New words 3. Introduction 4. Intake System Fundamentals 5. Manifolds 6. Exhaust System Fundamentals 7. Exhaust Pipes 8. Turbochargers.
Mechanical Aspiration The process of mechanically increasing the manifold pressure of an engine in order to maintain and/or increase horsepower. Ambient.
Racing Engines and Engine Modifications
Members: Rob Brown Scott Cone Thuc Le Brandon Wilen David Winkleman Advisor: Dr. Turcic.
© Goodheart-Willcox Co., Inc. Permission granted to reproduce for educational use only Publisher The Goodheart-Willcox Co., Inc. Tinley Park, Illinois.
1 Simulation and Implementation of Turbocharging a 600cc Engine for Formula SAE Mario Farrugia Nicholas Grech Marlon Chircop Jean Paul Azzopardi.
Maximization of Flow through Intake & Exhaust Systems
Forced Induction Engines Luke Tracy. Introduction: Internal combustion engine Combustion Fuel + air Occurs in combustion chamber Energy moves the parts.
Gasoline Engines Operation Energy and Power Energy is used to produce power. Chemical energy is converted to heat energy by burning fuel at a controlled.
Design Steps for Intake & Exhaust Systems
Honda Fit Turbo Kit Installation Manual. Take off windshield wiper.
Matching of Turbo-charger with I.C. Engine
Thrust Augmentation BASIC OPERATION Power Boosting.
SUPERCHARGER OF IC ENGINE
Howstuffworks.com.  More displacement means more power because you can burn more gas during each revolution of the engine  This can be accomplished.
Supreme Power Engine Basics The four cycle engine.
Gas law engine Operation of a 4 cycle engine: Google “4 cycle animated Engine” Use the ideal gas law if the number of moles change. The combined gas law.
11/14/2015 Vanderbilt Motorsports Intake and Exhaust Project 1 Vanderbilt Motorsports Intake/Exhaust Team March 13, 2008 Presentation Kristina Kitko Mark.
Four Stroke Cycle Engine Fundamentals.
+ The Four Stroke Cycle By Elizabeth Fahey. + Outline Time Required: 1-3 classes Grades: 9-12 Background: Lesson is in conjunction with the small engine.
USING TURBOCHARGING TECHNOLOGY TO DOWNSIZE COMBUSTION ENGINES TO MEET SUSTAINABLE FUEL ECONOMY REGULATIONS Same power output for both engines Better fuel.
CCAS 3381 AUTOMOTIVE SKILL I INTERNAL COMBUSTION (IC) ENGINE.
Kristina Kitko Mark Melasky Perry Peterson Tim Wranovix
Kristina Kitko Mark Melasky Perry Peterson Tim Wranovix
Copyright © 2016 by Pearson Education, Inc. All Rights Reserved Advanced Engine Performance Diagnosis, 6e James D. Halderman ADVANCED ENGINE PERFORMANCE.
PISTON ENGINE PROPULSION Chapter 8 Thrust Augmentation 1933 Alvis Engine 2014 Hyundai Engine Power Boosting.
2/25/2016 Vanderbilt Motorsports Intake and Exhaust Project 1 Vanderbilt Motorsports Intake/Exhaust Team January 31, 2008 Presentation Kristina Kitko Mark.
3/16/2016 Vanderbilt Motorsports Intake and Exhaust Project 1 Vanderbilt Motorsports Intake/Exhaust Team January 17, 2008 Presentation Kristina Kitko Mark.
Automotive Engines: Theory and Servicing, 7/e By James D. Halderman Copyright © 2011, 2009, 2005, 2001, 1997 Pearson Education, Inc., Upper Saddle River,
1Korea University of Technology and Education.  Intake manifold  It is a system designed to deliver air to the engine through pipes to each cylinder.
Lecture 2. Top Dead Center (TDC): Position of the piston when it stops at the extreme point away from the crankshaft. – Top because this position is at.
6/12/2016 Vanderbilt Motorsports Intake and Exhaust Project 1 Vanderbilt Motorsports Intake/Exhaust Team March 27, 2008 Presentation Kristina Kitko Mark.
Lightweight Fuel Efficient Engine Package. Team Members Evan See, ME Chris Jones, ME John Scanlon, ME Stanley Fofano, EE Taylor Hattori, ME Brittany Borella,
Wave Action Theory for Turning of Intake & Exhaust Manifold
6/21/2016 Vanderbilt Motorsports Intake and Exhaust Project 1 Vanderbilt Motorsports Intake/Exhaust Team February 14, 2008 Presentation Kristina Kitko.
Part 1.  A cylinders displacement is the volume of the cylinder when the piston is at BDC.  It is the sum of the displacement of each cylinder. 
IDENTIFY THE MAJOR SYSTEMS OF AN ENGINE!. NEXT GENERATION SCIENCE/COMMON CORE STANDARDS ADDRESSED! CCSS.ELA Literacy.RST.9‐ 10.3 Follow precisely a complex.
Automotive Engines Theory and Servicing
Intake and Exhaust Manifold Design: Part 1
Unit 40: Engines and motors Dr
Automotive Engines Theory and Servicing
Ram-air, Superchargers, Turbochargers and Nitrous Oxide
Automotive Engines Theory and Servicing
OPERATING PRINCIPLES OF PISTON ENGINES
Mechanical Aspiration
Unit 40: Engines and motors Dr
Kristina Kitko Mark Melasky Perry Peterson Tim Wranovix
Chapter 40: Engines and motors
Emission Reduction: The Different Approaches
Diesel Automotive Engines
Welcome.
Intake Exhaust Turbochargers
Automotive Engines Theory and Servicing
Automotive Engines Theory and Servicing
Presentation transcript:

VU Motorsports Intake/Exhaust Team Kristina Kitko Mark Melasky Perry Peterson Tim Wranovix

Project Description Design and build a new intake and/or exhaust system for the 2008 Formula SAE racecar Prepare a design report to be used in the FSAE 2008 Competition in Detroit

Problems with Current Naturally Aspirated System Inadequate data describing the intake and exhaust systems FSAE team has suffered at competition due to lack of presentable data FSAE team is unable to make improvements to current system do to lack of appropriate testing and modeling

Problems with Current Naturally Aspirated System (cont’d) Intake was made from spare parts in one day Exhaust system is very heavy FSAE team is using the stock muffler from the Honda motorcycle (8.5 pounds) Total system weighs around 25 pounds

Constraints Described in FSAE rules: Packaging: Cost: 20mm Venturi restrictor on intake 110 dB max exhaust volume Packaging: Fit within rear of car (image on next slide) Air filter, throttle, restrictor, fuel rail and muffler mounts Cost: Team must report market values of components used

Deliverables Finished intake and/or exhaust system that is ready to be mounted on the 2008 FSAE car by April 1. Detailed design report Technical data with flow modeling Images

Options Naturally Aspirated Turbocharged Build intake and/or exhaust Build intake and exhaust

Forced Induction Increases the pressure in the intake manifold forcing more air into the cylinder for combustion More gas combines with the air and produces a bigger explosion, increasing the engine’s horsepower

How Natural Aspiration Works Independent intake and exhaust A vacuum is created when the piston goes from the top of the cylinder to the bottom of the cylinder, drawing in air and fuel from the intake manifold Using geometry, the Helmholtz resonance can be incorporated to create a mild forced induction

How Natural Aspiration Works (continued) Exhaust pipes go from each cylinder to a collector (picture on next slide) The collector then tapers into a smaller diameter pipe that is connected to the muffler The taper chokes the exhaust gases, creating a Helmholtz resonance The pipes from each header need to be equal length to utilize the resonance

Pros Cons FSAE engine is setup for natural aspiration Cheaper than forced induction system Intake and/or exhaust can be redesigned No moving parts, so less likely to fail Not pressurized Cons Less power than complete forced induction Geometry needs to be thoroughly calculated

How Turbos Work Turbos use exhaust gas to spin a turbine A shaft connects the turbine to a compressor The compressor pressurizes air in the intake manifold, causing forced induction Complete system image on next slide

Garrett Turbocharger GT-12 (image on next slide) Engine horsepower 50 - 130 Displacement 0.4L - 1.2L FSAE team uses Honda CBR 600 (0.6L) producing 65 horsepower Free for any Formula SAE team Must still be reported as purchased in cost report

Pros Cons Increased power Intake and exhaust are designed as one system Simpler geometry compared to a naturally aspirated system Widens engine’s power band Cons Expensive Heavy Turbo lag Current FSAE high compression pistons need to be replaced Too much power makes the car harder to drive

Next Step Criterion for design decision: Cost Complexity Design team knowledge FSAE team input

Questions?