Tire - Wikipedia, the Free Encyclopedia
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Prestone Ebook Winter Driving 3
A Prestone ebook: WINTER DRIVING Of all the seasons, winter creates the most challenging driving conditions, and can be extremely tough on your car. Treacherous weather coupled with dark evenings can make driving hazardous, so it’s vital you ready yourself and your car before the season takes hold. From heavy rain to ice and snow, winter will throw all sorts of extreme weather your way — so it’s best to be prepared. By checking the condition of your car and changing your driving style to adapt to the hazardous conditions, you can keep driving no matter how extreme the weather becomes. To help you stay safe behind the wheel this season, here’s an in-depth guide on the dos and don’ts of winter driving. From checking your vehicle’s coolant/antifreeze to driving in thick fog, heavy rain and high winds — this guide is packed with tips and advice on driving in even the most extreme winter weather. PREPARING YOUR VEHICLE FOR WINTER DRIVING Keeping your car in a good, well maintained condition is important throughout the year, but especially so in winter. At a time when extreme weather can strike at any moment, your car needs to be prepared and ready for the worst. The following checks will help to make sure your car is ready for even the toughest winter conditions. COOLANT / ANTIFREEZE Whatever the weather, your car needs coolant/antifreeze all year round to make sure the engine doesn’t overheat or freeze up. By adding a quality coolant/antifreeze to your engine, it’ll be protected in all extremes — from -37°C to 129°C and you’ll also be protected against corrosion. -
Michelin: Socially Responsible Industrial Restructuring (Research Report)
Michelin: Socially Responsible Industrial Restructuring (Research Report) Professor Sandra J. Sucher and Research Associate Susan J. Winterberg* Introduction This report describes Michelin’s approach to socially responsible industrial restructuring.a The report was designed to serve two purposes—documentation and learning. The report provides documentation of Michelin’s practices in socially responsible industrial restructuring and contains an agreed upon description of Michelin’s planned, integrative, and humanistic approach. The report was also written as an opportunity for learning for Michelin’s leaders. The report traces the evolution in planning and practices that Michelin has used to conduct socially responsible restructuring over time. The resulting picture is both a view from the inside—told in the words and through the actions of Michelin’s managers—and a view from the outside—incorporating the reactions of stakeholders to Michelin’s restructuring approaches in various situations. Hopefully, it helps Michelin’s leaders assess where they have been and where they are headed in their evolving journey in socially responsible industrial restructuring. Michelin: Socially Responsible Industrial Restructuring Company Background Managing People at Michelin Industrial Restructuring at Michelin: Foundations and Evolution 2003–2013: Developing the ‘Ramp Down & Up Model’ of Restructuring 2013–Forward: Developing the New Restructuring Process Preparing the Annual Restructuring Plan Case Studies of Restructuring at Michelin Managing Stakeholders during Ramp Downs: Three Case Studies A Perfect Storm: Closing the Kleber Factory in Toul, France Closing a Truck Tire Factory in Budapest, Hungary Divestiture of a Rubber Plantation in Bahía, Brazil Managing Collaboration During Turnarounds: Two Case Studies Developing the Turnaround Option: Bourges, France A Beta-Test for Empowerment: Transforming the Roanne Factory, France Summary a Reviews Included: C. -
Tubeless-Ready Bead Tire Instructions Say Goodbye to Cold
TUBELESS-READY BEAD TIRE INSTRUCTIONS SAY GOODBYE TO COLD. SAY HELLO TO COMFORT. INTENDED USE 45North is built on real-world needs and knowledge. Our collection Studded tires: winter commuting, fatbiking and winter delivers unrivaled comfort and control through advanced technical off-road cycling. design and effective use of materials. We have more people who Fatbike tires: for bicycles that accommodate a 26 x 3.7" or larger ride more miles in colder weather than anywhere on the planet. tire, for winter off-road cycling. Enjoy. NOTE: 45North Studded tires are not intended for long-haul loaded WARNING: CYCLING CAN BE DANGEROUS. touring on pavement. BICYCLE PRODUCTS SHOULD BE INSTALLED AND SERVICED BY A PROFESSIONAL MECHANIC. NEVER MODIFY YOUR RIM COMPATIBILITY BICYCLE OR ACCESSORIES. READ AND FOLLOW ALL PRODUCT WARNING: Standard bead 45North tires are not tubeless ready. INSTRUCTIONS AND WARNINGS INCLUDING INFORMATION ON THE MANUFACTURER’S WEBSITE. INSPECT YOUR BICYCLE Tire Width Outside Rim Width BEFORE EVERY RIDE. ALWAYS WEAR A HELMET. 30mm 20–25mm WARNING: Tires are a part of your bike that will wear out with 35mm 20–25mm use. Tires may pick up foreign objects such as glass or road debris that will puncture the tire and inner tube, causing a loss of air 38mm 20–28mm pressure and reduced ability to control or stop the bike, which 54mm (2.1") 25–35mm could lead to a crash resulting in serious injury or death. Before each ride check to ensure that your tires are in good condition, 60mm (2.35") 25–40mm properly seated on the rim, and properly inflated. -
Development of Recommended Guidelines for Preservation Treatments for Bicycle Routes
UC Davis Research reports Title Development of Recommended Guidelines for Preservation Treatments for Bicycle Routes Permalink https://escholarship.org/uc/item/72q3c143 Authors Li, H. Buscheck, J. Harvey, J. et al. Publication Date 2017 eScholarship.org Powered by the California Digital Library University of California January 2017 Research Report: UCPRC-RR-2016-02 Development of Recommended Guidelines for Preservation Treatments for Bicycle Routes Version 2 Authors: H. Li, J. Buscheck, J. Harvey, D. Fitch, D. Reger, R. Wu, R. Ketchell, J. Hernandez, B. Haynes, and C. Thigpen Part of Partnered Pavement Research Program (PPRC) Strategic Plan Element 4.57: Development of Guidelines for Preservation Treatments for Bicycle Routes PREPARED FOR: PREPARED BY: California Department of Transportation University of California Division of Research, Innovation, and System Information Pavement Research Center Office of Materials and Infrastructure UC Davis, UC Berkeley TECHNICAL REPORT DOCUMENTATION PAGE 1. REPORT NUMBER 2. GOVERNMENT ASSOCIATION 3. RECIPIENT’S CATALOG NUMBER UCPRC-RR-2016-02 NUMBER 4. TITLE AND SUBTITLE 5. REPORT PUBLICATION DATE Development of Recommended Guidelines for Preservation Treatments for Bicycle January 2017 Routes 6. PERFORMING ORGANIZATION CODE 7. AUTHOR(S) 8. PERFORMING ORGANIZATION H. Li, J. Buscheck, J. Harvey, D. Fitch, D. Reger, R. Wu, R. Ketchell, J. Hernandez, B. REPORT NO. Haynes, C. Thigpen 9. PERFORMING ORGANIZATION NAME AND ADDRESS 10. WORK UNIT NUMBER University of California Pavement Research Center Department of Civil and Environmental Engineering, UC Davis 1 Shields Avenue 11. CONTRACT OR GRANT NUMBER Davis, CA 95616 65A0542 12. SPONSORING AGENCY AND ADDRESS 13. TYPE OF REPORT AND PERIOD California Department of Transportation COVERED Division of Research, Innovation, and System Information Research Report, May 2015 – P.O. -
The Parliament of the Commonwealth of Australia Tyre Safety Report Op the House of Representatives Standing Committee on Road Sa
THE PARLIAMENT OF THE COMMONWEALTH OF AUSTRALIA TYRE SAFETY REPORT OP THE HOUSE OF REPRESENTATIVES STANDING COMMITTEE ON ROAD SAFETY JUNE 1980 AUSTRALIAN GOVERNMENT PUBLISHING SERVICE CANBERRA 1980 © Commonwealth of Australia 1980 ISBN 0 642 04871 1 Printed by C. I THOMPSON, Commonwealth Govenimeat Printer, Canberra MEMBERSHIP OF THE COMMITTEE IN THE THIRTY-FIRST PARLIAMENT Chairman The Hon. R.C. Katter, M.P, Deputy Chai rman The Hon. C.K. Jones, M.P. Members Mr J.M. Bradfield, M.P. Mr B.J. Goodluck, M.P. Mr B.C. Humphreys, M.P. Mr P.F. Johnson, M.P. Mr P.F. Morris, M.P. Mr J.R. Porter, M.P. Clerk to the Committee Mr W. Mutton* Advisers to the Committee Mr L. Austin Mr M. Rice Dr P. Sweatman Mr Mutton replaced Mr F.R. Hinkley as Clerk to the Committee on 7 January 1980. (iii) CONTENTS Chapter Page Major Conclusions and Recommendations ix Abbreviations xvi i Introduction ixx 1 TYRES 1 The Tyre Market 1 -Manufacturers 1 Passenger Car Tyres 1 Motorcycle Tyres 2 - Truck and Bus Tyres 2 ReconditionedTyi.es 2 Types of Tyres 3 -Tyre Construction 3 -Tread Patterns 5 Reconditioned Tyres 5 The Manufacturing Process 7 2 TYRE STANDARDS 9 Design Rules for New Passenger Car Tyres 9 Existing Design Rules 9 High Speed Performance Test 10 Tests under Conditions of Abuse 11 Side Forces 11 Tyre Sizes and Dimensions 12 -Non-uniformity 14 Date of Manufacture 14 Safety Rims for New Passenger Cars 15 Temporary Spare Tyres 16 Replacement Passenger Car Tyres 17 Draft Regulations 19 Retreaded Passenger Car Tyres 20 Tyre Industry and Vehicle Industry Standards 20 -
RELATIONSHIPS BETWEEN LANE CHANGE PERFORMANCE and OPEN- LOOP HANDLING METRICS Robert Powell Clemson University, [email protected]
Clemson University TigerPrints All Theses Theses 1-1-2009 RELATIONSHIPS BETWEEN LANE CHANGE PERFORMANCE AND OPEN- LOOP HANDLING METRICS Robert Powell Clemson University, [email protected] Follow this and additional works at: http://tigerprints.clemson.edu/all_theses Part of the Engineering Mechanics Commons Please take our one minute survey! Recommended Citation Powell, Robert, "RELATIONSHIPS BETWEEN LANE CHANGE PERFORMANCE AND OPEN-LOOP HANDLING METRICS" (2009). All Theses. Paper 743. This Thesis is brought to you for free and open access by the Theses at TigerPrints. It has been accepted for inclusion in All Theses by an authorized administrator of TigerPrints. For more information, please contact [email protected]. RELATIONSHIPS BETWEEN LANE CHANGE PERFORMANCE AND OPEN-LOOP HANDLING METRICS A Thesis Presented to the Graduate School of Clemson University In Partial Fulfillment of the Requirements for the Degree Master of Science Mechanical Engineering by Robert A. Powell December 2009 Accepted by: Dr. E. Harry Law, Committee Co-Chair Dr. Beshahwired Ayalew, Committee Co-Chair Dr. John Ziegert Abstract This work deals with the question of relating open-loop handling metrics to driver- in-the-loop performance (closed-loop). The goal is to allow manufacturers to reduce cost and time associated with vehicle handling development. A vehicle model was built in the CarSim environment using kinematics and compliance, geometrical, and flat track tire data. This model was then compared and validated to testing done at Michelin’s Laurens Proving Grounds using open-loop handling metrics. The open-loop tests conducted for model vali- dation were an understeer test and swept sine or random steer test. -
MICHELIN® X® TWEEL Warranty Overview
MICHELIN® TWEEL® Airless radial tire Warranty Guide Contents MICHELIN® Tweel® Tire Warranty Overview ............................................................................. 3–4 Common Warranty Specifi cations ...............................................................................................5 Parts of a Tweel® Airless Radial Tire .............................................................................................5 Examination Tools .......................................................................................................................6 MICHELIN® X® TWEEL® SSL AIRLESS RADIAL TIRES Technical Specifi cations: MICHELIN® X® Tweel® SSL Tires .............................................................6 MICHELIN® X® Tweel® SSL Tire Torque Specs and Retreading .......................................................7 Tweel® SSL Tire Warranty vs. Wear Guide ..............................................................................8–12 MICHELIN® X® TWEEL® TURF AIRLESS RADIAL TIRES Technical Specifi cations: MICHELIN® X® Tweel® Turf Tires ...........................................................13 Tweel® Turf Tire Proper Installation Instructions ..........................................................................13 Tweel® Turf Tire Warranty vs. Wear Guide ........................................................................... 14–17 MICHELIN® X® TWEEL® CASTERS Technical Specifi cations: MICHELIN® X® Tweel® Casters..............................................................17 Tweel® Caster Warranty -
The Effect of Tyre Inflation Pressure on Fuel Consumption and Vehicle Handling Performance a Case of ANBESSA CITY BUS
ADAMA SCIENCE AND TECHNOLOGY UNIVERSITY SCHOOL OF MECHANICAL, CHEMICAL AND MATERIALS ENGINEERING The Effect of Tyre Inflation Pressure on Fuel Consumption and vehicle Handling Performance a case of ANBESSA CITY BUS A thesis submitted in partial fulfillment of the requirements for the award of the Degree of Master of Science in Automotive Engineering By NIGATU BELAYNEH USAMO ADVISOR: - N. RAMESH BABU (Associate Professor) MECHANICAL SYSTEMS AND VEHICLE ENGINEERING PROGRAM June-2017 Adama-Ethiopia I CANDIDATE'S DECLARATION I hereby declare that the work which is being presented in the thesis titled ―The Effect of Tyre Inflation Pressure on Fuel Consumption and vehicle Handling Performance a case of ANBESSA CITY BUS‖ in partial fulfillment of the requirements for the award of the degree of Master of Science in Automotive Engineering is an authentic record of my own work carried out from October 2016 to up June 2017, under the supervision of N. RAMESH BABU Department of Mechanical and Vehicle Engineering, Adama Science and Technology University, Ethiopia. The matter embodied in this thesis has not been submitted by me for the award of any other degree or diploma. All relevant resources of information used in this thesis have been duly acknowledged. Name Signature Date Nigatu Belayneh ………………… …………… Student This is to certify that the above statement made by the candidate is correct to the best of my knowledge and belief. This thesis has been submitted for examination with my approval. Name Signature Date N. Ramesh Babu ______________ ________________ -
Mechanics of Pneumatic Tires
CHAPTER 1 MECHANICS OF PNEUMATIC TIRES Aside from aerodynamic and gravitational forces, all other major forces and moments affecting the motion of a ground vehicle are applied through the running gear–ground contact. An understanding of the basic characteristics of the interaction between the running gear and the ground is, therefore, essential to the study of performance characteristics, ride quality, and handling behavior of ground vehicles. The running gear of a ground vehicle is generally required to fulfill the following functions: • to support the weight of the vehicle • to cushion the vehicle over surface irregularities • to provide sufficient traction for driving and braking • to provide adequate steering control and direction stability. Pneumatic tires can perform these functions effectively and efficiently; thus, they are universally used in road vehicles, and are also widely used in off-road vehicles. The study of the mechanics of pneumatic tires therefore is of fundamental importance to the understanding of the performance and char- acteristics of ground vehicles. Two basic types of problem in the mechanics of tires are of special interest to vehicle engineers. One is the mechanics of tires on hard surfaces, which is essential to the study of the characteristics of road vehicles. The other is the mechanics of tires on deformable surfaces (unprepared terrain), which is of prime importance to the study of off-road vehicle performance. 3 4 MECHANICS OF PNEUMATIC TIRES The mechanics of tires on hard surfaces is discussed in this chapter, whereas the behavior of tires over unprepared terrain will be discussed in Chapter 2. A pneumatic tire is a flexible structure of the shape of a toroid filled with compressed air. -
Download Download
Journal of Applied Physics and Engineering Vol.1, No.3 (2016) 23–31 4 ISSN Number (online): 2455-4650 Automatic Air Inflation System in Tire with Pressure Control and Monitor System DOI:10.26524/jap1 V.Senthilraja*, S.A.Srinivasan, M.Magudeswaran, S.Dhayananth, M.Murugavel, G.Sivaprasath Department of Mechanical Engineering Sasurie College of Engineering Tiruppur-638056, India *Corresponding Author Received: 03/11/2015, Revised: 03/01/2016 and Accepted: 14/03/2016 Abstract An automatic tire inflation system for a vehicle includes a plurality of wheel assemblies. Each wheel assembly includes a rotatable portion connected to its associated tire and a non-rotatable portion connected to the vehicle chassis. A sealed air passageway is provided between an inlet in the non-rotatable portion and an outlet in the rotatable portion of the wheel assembly which is connected to the tire. The sealed air passageway is provided in part by way of a longitudinally extending bore in the spindle which communicates with a chamber defined by a sleeve and a pair of air seals between the sleeve and spindle. A manually actable selector device in the vehicle is provided to permit the user to select one of a plurality of preset air pressure settings for the tires. An air regulating system quickly responds to the selected setting to automatically regulate the air pressure within the tires at the preset pressure associated with the selected setting of the selector device. A master- slave valving arrangement controlled by pilot air is preferably used to perform the inflation or deflation process. Keywords—rotary joint,compressor,pneumatic pipes,tire *Reviewed by ICETSET'16 organizing committee 1. -
Air Rush Road CO2 Inflator & Hand Pump
Air Rush Road CO2 Inflator & Hand Pump For your safety and the enjoyment of this product, please read these instructions in Inflating with CO2 their entirety before using your pump. WARNING Use only Bontrager CO2 threaded cartridges. See the Safety instructions on page 2. The CO2 cartridges are pressurized. The sudden release of pressure This product fits both Presta and Schrader valves. can cause severe injury or death. Always follow the safety instructions on page 4. Mounting Parts list Mounting bracket screws 1. Remove the valve cap from the valve stem. • Inflator / Pump Presta valve: Fully open the valve on top of the valve stem. • 2 CO2 cartridges Cartridges • 2 Mounting screws 2. Turn the cartridge valve on the end of the Close • Mounting bracket inflator clockwise to the CLOSE position. Inflator/pump Hand pumping 1. Turn the cartridge valve on the end of the Close pump clockwise to the CLOSE position. 3.a. Schrader valve: Turn the top nut on the Top nut pump valve counterclockwise so it’s snug on the bottom nut. Together for Schrader valve 2.a. Schrader valve: Turn the top nut on the Top nut pump valve counterclockwise so it’s snug on the bottom nut. Together for Schrader valve 3.b. Presta valve: Turn the top nut on the pump valve clockwise and pull the nut to extend Extend for Presta valve the connector. 2.b. Presta valve: Turn the top nut on the pump valve clockwise and pull the nut to extend Extend for Presta valve the connector. 4. Fully thread and tighten a cartridge onto the inflator. -
Automotive Engineering II Lateral Vehicle Dynamics
INSTITUT FÜR KRAFTFAHRWESEN AACHEN Univ.-Prof. Dr.-Ing. Henning Wallentowitz Henning Wallentowitz Automotive Engineering II Lateral Vehicle Dynamics Steering Axle Design Editor Prof. Dr.-Ing. Henning Wallentowitz InstitutFürKraftfahrwesen Aachen (ika) RWTH Aachen Steinbachstraße7,D-52074 Aachen - Germany Telephone (0241) 80-25 600 Fax (0241) 80 22-147 e-mail [email protected] internet htto://www.ika.rwth-aachen.de Editorial Staff Dipl.-Ing. Florian Fuhr Dipl.-Ing. Ingo Albers Telephone (0241) 80-25 646, 80-25 612 4th Edition, Aachen, February 2004 Printed by VervielfältigungsstellederHochschule Reproduction, photocopying and electronic processing or translation is prohibited c ika 5zb0499.cdr-pdf Contents 1 Contents 2 Lateral Dynamics (Driving Stability) .................................................................................4 2.1 Demands on Vehicle Behavior ...................................................................................4 2.2 Tires ...........................................................................................................................7 2.2.1 Demands on Tires ..................................................................................................7 2.2.2 Tire Design .............................................................................................................8 2.2.2.1 Bias Ply Tires.................................................................................................11 2.2.2.2 Radial Tires ...................................................................................................12