The Old Man and His Caravan Dr Edward Brell Bsc Meng Phd
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Complete Design and Optimization of the Aerodynamics of a FSAE Car Using Solid Works ANSYS & XFLR5
Proceedings of the World Congress on Engineering 2016 Vol II WCE 2016, June 29 - July 1, 2016, London, U.K. Complete Design and Optimization of the Aerodynamics of a FSAE Car using Solid works ANSYS & XFLR5 Aravind Prasanth, Sadjyot Biswal, Aman Gupta, Azan Barodawala Member, IAENG Abstract: This paper will give an insight in to how an II. AERODYNAMICS Aerodynamics package of a FSAE car is developed as well as The most important factor in achieving better top speed is the various stages of optimizing and designing the Front wing and Rear wing. The under tray will be explained in a the traction due to the tires and this depends upon the companion paper. The paper will focus on the reasons to use normal force. It can be achieved by increasing the mass, aerodynamic devices, choice of the appropriate wing profile, its however, this takes a toll on the acceleration. Therefore, the 2D and 3D configuration and investigation of the effect of option available is to increase the downforce. The drawback ground proximity for the front wing. Finally, various softwares of adding aerodynamics package will result in the addition are implemented to identify the correct configurations for the of drag. Front and Rear wing. It is important to determine how much top speed can be sacrificed without compensating on the track performance. Index Terms— ANSYS, CFD, downforce, FSAE, XFLR5 A. Sacrificial top speed The acceleration of the car can be expressed as. I. INTRODUCTION he aim is to create a high downforce aerodynamics T package for the FSAE (Formula Society of Automotive (1) Engineers) race car. -
Schaeffler Symposium 2018
2018 Schaeffler Symposium 9/6/2018 Intelligent Active Roll Control INTELLIGENT ACTIVE ROLL CONTROL SHAUN TATE 1 2018 Schaeffler Symposium 9/6/2018 Intelligent Active Roll Control Production Experience & Awards Series Production – 12V BMW 7 Series 2015 BMW 5 Series 2017 RR Phantom 2018 Series Production – 48V Bentley Bentayga 2015 Audi SQ7 2016 Porsche Panamera 2017 Porsche Cayenne 2017 Bentley Continental 2018 Award‐Winning System German Innovation Award Vehicle Dynamics International Award Auto Test Sieger PACE Award 2016 2016 2016 2017 Feature to Product Mapping Stationary Ride Comfort Feature Adaptive Suspension Setup Agility & Stability Conditions Improvement Control Response Clearance Vertical Acceleration Exit Base Stability / Roll Leveling Acceleration Steering Products ‐ Easy Loading Easy Entry Easy Parking Adapt Ground Adapt Wheel Increase Articulation Load Reduce Acceleration Reduce Lateral Reduce Yaw Adapt Self Adapt Steering Dynamic Body Trailer iARC 2 2018 Schaeffler Symposium 9/6/2018 Intelligent Active Roll Control Market Trends & Features Trend 3: Large Trucks/SUVs/Vans for improved comfort and more safety Weight Trend 2: HEV/EV for improved comfort and system availability Vehicle Trend 1: SUV for improved comfort and agility Vehicle Center of Gravity Selling Features Using Schaeffler iARC System Feature Driving Dynamics Comfort Features ADAS Support L3 / Active Safety ‐ Roll Into m Lane Mode ‐ Self Steering Yaw Ride Stability Body Tilt Control Control Emergency Split Free Speed Road Vehicle Class ‐ Stability Active Control -
Press Release
PRESS RELEASE www.youtube.com/fordofeurope www.twitter.com/FordEu www.youtube.com/fordo feurope Ford Mustang Mach 1 touches down in Europe • Track-focused Mustang Mach 1 introduces enhanced powertrain and aerodynamic features for the most agile and responsive Mustang driving experience in Europe ever • V8 power boosted to 460 PS for 0-100 km/h in 4.4 seconds. TREMEC manual and 10- speed auto transmissions feature limited-slip differential. Downforce increased 22 per cent • Sophisticated technologies for track driving fun include MagneRide® adaptive suspension, selectable Drive Modes including Track mode, and Track Apps including Launch Control COLOGNE, Germany, May 18, 2021 – First deliveries of the new Ford Mustang Mach 1 – the most track-focused Mustang ever offered to customers in Europe – are now underway, Ford today announced. Enhancing the powerful performance of the world’s best-selling sports car with a specially- calibrated 460 PS 5.0-litre V8 engine 1 and unique transmission specifications, Mustang Mach 1 also introduces bespoke aerodynamics and new performance component cooling systems for greater agility and consistent on-track performance. Mustang Mach 1 delivers 0-100 km/h acceleration in 4.4 seconds and increases downforce by 22 per cent compared with Mustang GT for enhanced cornering capability and high-speed stability. Introducing the iconic Mach 1 moniker to the region for the first time, the limited-edition model also delivers race-derived styling, specification and detailing for performance car fans. “There’s a reason Mustang is the world’s best-selling sports car, but the Mach 1 is going to elevate Mustang to another level in the hearts of performance car fans on this side of the Atlantic,” said Matthias Tonn, Mustang Mach 1 chief programme engineer for Europe. -
Dawn of a New Axle Era a Little Over Forty Years Ago, the Porsche 928 Revolutionized Suspension Technology—With the Legendary Weissach Axle
newsroom Engineering May 29, 2018 Dawn of a New Axle Era A little over forty years ago, the Porsche 928 revolutionized suspension technology—with the legendary Weissach axle. 1973: New suspension designs are gaining ground. Suddenly the future for rear-engine cars looks uncertain. Porsche’s developers and decision makers are concerned. The 911, which has been on the market for nine years, is selling well and is a major commercial success. But the question is: how much longer will that continue? Voices prophesying the end of the car’s career cannot be ignored. Some people in Zuffenhausen even think that the 911 has exhausted its potential—mistakenly so, as it’ll turn out. In Zuffenhausen and at the recently opened development center in Weissach, work is already well under way on a successor—the 928. It’s the first Porsche with a front engine: a 4.5-liter V8 assembly with 240 hp. For purposes of weight distribution, the transmission is located on the rear axle and connected to the engine via a longitudinal shaft in a rigid central tube. Known as the transaxle principle, familiar to many from the Porsche 924, this isn’t the only technical innovation to debut with the futuristically designed 928 in 1977. The car also sets new standards in drivability. The Weissach axle is a “revolution in suspension that’s still the basis of our work today,” says Manfred Harrer, director of suspension development at Porsche. Focus on driving safety The Weissach axle—which stands for Winkel einstellende, selbst stabilisierende Ausgleichs-Charakteristik (angle-adjusting, self- stabilizing equalization characteristic)—allows Porsche to solve a problem that’s both fundamental and pressing. -
Electronic Stability Control Systems for Heavy Vehicles; Proposed Rule
Vol. 77 Wednesday, No. 100 May 23, 2012 Part III Department of Transportation National Highway Traffic Safety Administration 49 CFR Part 571 Federal Motor Vehicle Safety Standards; Electronic Stability Control Systems for Heavy Vehicles; Proposed Rule VerDate Mar<15>2010 18:07 May 22, 2012 Jkt 226001 PO 00000 Frm 00001 Fmt 4717 Sfmt 4717 E:\FR\FM\23MYP2.SGM 23MYP2 mstockstill on DSK4VPTVN1PROD with PROPOSALS2 30766 Federal Register / Vol. 77, No. 100 / Wednesday, May 23, 2012 / Proposed Rules DEPARTMENT OF TRANSPORTATION New Jersey Avenue SE., West Building A. UMTRI Study Ground Floor, Room W12–140, B. Simulator Study National Highway Traffic Safety Washington, DC 20590–0001 C. NHTSA Track Testing Administration • Hand Delivery or Courier: West 1. Effects of Stability Control Systems— Phase I Building Ground Floor, Room W12–140, 49 CFR Part 571 2. Developing a Dynamic Test Maneuver 1200 New Jersey Avenue SE., between and Performance Measure To Evaluate [Docket No. NHTSA–2012–0065] 9 a.m. and 5 p.m. ET, Monday through Roll Stability—Phase II Friday, except Federal holidays. (a) Test Maneuver Development RIN 2127–AK97 • Fax: (202) 493–2251 (b) Performance Measure Development Instructions: For detailed instructions 3. Developing a Dynamic Test Maneuver Federal Motor Vehicle Safety on submitting comments and additional and Performance Measure To Evaluate Standards; Electronic Stability Control information on the rulemaking process, Yaw Stability—Phase III Systems for Heavy Vehicles see the Public Participation heading of (a) Test Maneuver Development (b) Performance Measure Development the SUPPLEMENTARY INFORMATION AGENCY: National Highway Traffic section 4. Large Bus Testing Safety Administration (NHTSA), of this document. -
Design, Analysis and Optimization of Anti-Roll Bar
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Directory of Open Access Journals Pravin Bharane et al. Int. Journal of Engineering Research and Applications www.ijera.com ISSN : 2248-9622, Vol. 4, Issue 9( Version 4), September 2014, pp.137-140 RESEARCH ARTICLE OPEN ACCESS Design, Analysis and Optimization of Anti-Roll Bar Pravin Bharane*, Kshitijit Tanpure**, Amit Patil***, Ganesh Kerkal**** *,**,***,****( Assistant Professor, Department of Mechanical Engg., Dnyanganga College of Engg. & Research, Pune) ABSTRACT Vehicle anti-roll bar is part of an automobile suspension system which limits body roll angle. This U-shaped metal bar connects opposite wheels together through short lever arms and is clamped to the vehicle chassis with rubber bushes. Its function is to reduce body roll while cornering, also while travelling on uneven road which enhances safety and comfort during driving. Design changes of anti-roll bars are quite common at various steps of vehicle production and a design analysis must be performed for each change. So Finite Element Analysis (FEA) can be effectively used in design analysis of anti-roll bars. The finite element analysis is performed by ANSYS. This paper includes pre-processing, analysis, post processing, and analyzing the FEA results by using APDL (Ansys Parametric Design Language). The effects of anti-roll bar design parameters on final anti-roll bar properties are also evaluated by performing sample analyses with the FEA program developed in this project. Keywords: FEA, Anti Roll Bar, APDL, Design Parameters. I. INTRODUCTION Anti-roll bar, also referred to as stabilizer or ensure directional control and stability with adequate sway bar, is a rod or tube, usually made of steel, that traction and braking capabilities [1]. -
Passionate Mustang Team Works After-Hours to Create New Performance Pack for Ultimate Road- Hugging Thrill Ride
FORD MEDIA CENTER Passionate Mustang Team Works After-Hours to Create New Performance Pack for Ultimate Road- Hugging Thrill Ride • New Mustang GT Performance Pack Level 2 raises Mustang GT’s game and bridges the gap between GT Performance Pack and GT350 • Performance Pack Level 2 is accentuated by a lower, more aggressive stance, aerodynamically balanced high-performance front splitter and rear spoiler – all designed to add more downforce to attack curves for an exhilarating feel behind the wheel • Michelin Pilot Sport Cup 2 tires, retuned steering and MagneRide® suspension deliver ultra- responsive road-gripping capabilities in new manual transmission-equipped Mustang GT with Performance Pack Level 2 DEARBORN, Mich., Oct. 23, 2017 – Evenings in the garage. Weekends at the track. Gearheads everywhere can appreciate the extra time and effort the Mustang team took to quickly prototype and hone the Performance Pack Level 2 for the new 2018 Ford Mustang GT. “A passion to create something special is what really drove this project,” said Tom Barnes, Mustang vehicle engineering manager. “And that really showed in the off-the-clock way we went about doing our work.” Longtime tire and wheel engineer Chauncy Eggleston led development of unique 19-inch wheels that help provide notable steering and handling response improvements. Mustang veteran Jonathan Gesek, former aerodynamics specialist at NASA and now with Ford’s aerodynamics group, spearheaded development of a high-performance front splitter and rear spoiler. And Jamie Cullen, Ford supervisor for vehicle dynamics development, led road test efforts to ensure the car delivers ultra-responsive steering, braking and handling performance. -
COMPARATIVE STUDY of VEHICLE ROLL STABILITY Final Report
COMPARATIVE STUDY OF VEHICLE ROLL STABILITY Final Report Contract No, FH-11-9577 Phase V T.D. Gillespie R.D. Ervin May 1983 Tuluicol RwDocuumtati'm P- I. RepmNo, Z Accessim (lo. 3. Recipient's Cedmq (lo. I 4. Title d Subtitie 5. RvtDate COMPARATIVE STUDY OF VEHICLE ROLL STABILITY May 1983 6. P-mag Orqmir.ri.r, Cdr 8. Per4emiag OmdmRm No. 7. kihu's) T.D. Gillespie and R.D. Ervin UMTRI-83-25 9. Pduming Orl.niadir Nuad Mess 10. Work Uait No. The University of Michigan 1 Transportation Research Institute 2901 Baxter Road - - 7 (Phase V) Ann Arbor, Michigan 48109 13. Trr ef RW 4p.,iocl had 12 Wag4mnq Nu ad Ahss U.S. Department of Transportation Final 2118183-5/18/83 Federal Highway Administration ' Washington, D.C. 20590 1'. Srmwing Amyae 1.6. Abshct The roll stability levels of a broad range of motor vehicles were determined using computer simulation. The input data needed for these calculations were obtained from both direct measurements and from pre- viously published information. The vehicles of interest covered the range from subcompact passenger cars through heavy-duty truck combinations. The results are discussed in the light of two issues, namely: 1) the roll stability levels of step-van-type trucks used by the bakery industry relative to the stability levels of other vehicles and I 2) the influence of width parameters on the roll stability of heavy truck combinations. 17. Key Wrb roll stability, passenger I 18- D's"hM ] cars, light trucks, bakery trucks, I I heavy-duty trucks I UNLIMITED I 19. -
CL-Class CL500 CL55 AMG CL600 Forget Everything You Know About Driving
Mercedes-Benz 2005 CL-Class CL500 CL55 AMG CL600 Forget everything you know about driving Let go of all preconceived notions of how a car is supposed to look, feel and drive. Then start at the very beginning. That’s where Mercedes-Benz began when we invented the very first automobile in 1886 — without any template to follow, just an idea and the passion to pursue it. It’s from that same desire to pioneer original technologies and new driving experiences that the iconic CL-Class is born. Its sophisticated pillarless coupe design combines with innovations such as Active Body Control — the most advanced active suspension in production — and a thoroughly luxurious 4-passenger cabin to redefine your expectations of what a car can be. So whether you choose the refined V-8 strength of the CL500, the unrelenting power of the twin-turbo V-12 CL600 or the exhilarating rush of the supercharged CL55 AMG, it’s time to drive like never before. CL500 Coupe shown in Brilliant Silver metallic with optional AMG Sport Package. CL500 Coupe. Your first encounter It’s the start of something beautiful. The instant allure of sensuous sheet metal flowing gracefully over a pillarless form. The visceral charge of the CL500’s powerful 302-hp V-8 engine mated to the industry’s first 7-speed automatic transmission. The athletic artistry of Active Body Control and our Electronic Stability Program. And what lies ahead? Only your next exhilarating rendezvous with the CL500 and the open road. CL500 Coupe shown in Brilliant Silver metallic with optional Distronic cruise control. -
Understeer / Oversteer “Handling Issues” Are Caused by the Driver, Not the Car
Trackside Classroom Understeer and Oversteer VGC i Venture Consulting Group, Inc Disclaimer The techniques shown here have been compiled from experienced sources believed to be reliable and to represent the best current opinions on driving on track. But they are advisory only. Driving at speed at NJMP Lightning, or any other track, requires skill, judgment and experience. These techniques assume the reader has high performance driving knowledge and applies them as applicable to their level of drivingVGC experience.i Venture Consulting Group, Inc High-performance driving can be very dangerous, carries inherent risks and may result in injury or death. NNJR and PCA make no warranty, guarantee or representations as to the absolute correctness or sufficiency of any representation contained herein. Nor can it be assumed that all acceptable safety measures are contained herein or that other or additional measures may not be required under particular or exceptional conditions or circumstances. Understeer/Oversteer Agenda • Definitions • How to know / learn? • Causes – Setup – Driver • How to “fix” Trackside Classroom Copyright NNJR 2019 Slide 3 How to know/learn? • Do you know if your car is understeering? – Oversteering? – Both (at different times)? • Sensory input sessions – Sound – “Seat of the pants” (Kinesthetics) – Feel in the steering wheel – Vision: car’s path vs. intended path Trackside Classroom Copyright NNJR 2019 Slide 4 Understeer: the car won’t turn! Trackside Classroom Copyright NNJR 2019 Slide 5 Understeer • Front tires have less -
Effectiveness of an Emergency Vehicle Operations
Eastern Kentucky University Encompass Online Theses and Dissertations Student Scholarship January 2016 Effectiveness of an Emergency Vehicle Operations Course Component, Visual and Perceptual Skills: Analyzing Student Response to Searching, Identifying, Predicting, Deciding, and Executing Skills Christopher Bradley Millard Eastern Kentucky University Follow this and additional works at: https://encompass.eku.edu/etd Part of the Cognition and Perception Commons, and the Educational Assessment, Evaluation, and Research Commons Recommended Citation Millard, Christopher Bradley, "Effectiveness of an Emergency Vehicle Operations Course Component, Visual and Perceptual Skills: Analyzing Student Response to Searching, Identifying, Predicting, Deciding, and Executing Skills" (2016). Online Theses and Dissertations. 403. https://encompass.eku.edu/etd/403 This Open Access Dissertation is brought to you for free and open access by the Student Scholarship at Encompass. It has been accepted for inclusion in Online Theses and Dissertations by an authorized administrator of Encompass. For more information, please contact [email protected]. The Effectiveness of an Emergency Vehicle Operations Course Component Visual and Perceptual Skills: Analyzing Student Response to Searching, Identifying, Predicting, Deciding, and Executing Skills By Christopher Bradley Millard Master of Science Eastern Kentucky University Richmond, Kentucky 2013 Bachelor of Science Eastern Kentucky University Richmond, Kentucky 2010 Submitted to the Faculty of the Graduate School of Eastern Kentucky University in partial fulfillment of the requirements for the degree of DOCTOR OF EDUCATION August, 2016 Copyright © Christopher Bradley Millard, 2016 All right reserved ii DEDICATION I dedicate this work to my Family. Thank you for all of your help and inspiration. iii ACKNOWLEDGEMENTS I extend my gratitude to parents Bradley and Regina for their guidance, support and discipline. -
Research Article Advanced Modeling and Simulation of Vehicle Active Aerodynamic Safety
Hindawi Journal of Advanced Transportation Volume 2019, Article ID 7308590, 17 pages https://doi.org/10.1155/2019/7308590 Research Article Advanced Modeling and Simulation of Vehicle Active Aerodynamic Safety Krzysztof Kurec ,1 MichaB Remer ,1 Jakub Broniszewski ,1 PrzemysBaw Bibik ,1 Sylwester Tudruj,2 and Janusz Piechna 1 1 Warsaw University of Technology, Institute of Aeronautics and Applied Mechanics, Warsaw 00-665, Poland 2Warsaw University of Technology, Institute of Micromechanics and Photonics, Warsaw 02-525, Poland Correspondence should be addressed to Janusz Piechna; [email protected] Received 3 August 2018; Accepted 6 January 2019; Published 3 February 2019 Guest Editor: Mihai Dimian Copyright © 2019 Krzysztof Kurec et al. Tis is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited. Te aim of this study was to extend the safety limits of fast moving cars by the application, in a controlled way, of aerodynamic forces which increase as the square of a car’s velocity and, if lef uncontrolled, dramatically reduce car safety. Tis paper presents the methods, assumptions, and results of numerical and experimental investigations by modeling and simulation of the aerodynamic characteristics and dynamics of a small sports car equipped with movable aerodynamic elements operated by an electronic subsystem for data acquisition and aerodynamics active automatic control. 1. Introduction such action has drawbacks in the form of car bodies gener- ating aerodynamic lif forces at high speed, together with a Currently, the trend to minimize emissions by limiting decrease in a car’s directional stability and reduction of safety fossil fuel consumption leads to lighter cars with a low limits during fast cornering.