The Pocket Tire Guide for General Aviation
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Blowout Resistant Tire Study for Commercial Highway Vehicles
Final Technical Report for Task Order No. 4 (DTRS57-97-C-00051) Blowout Resistant Tire Study for Commercial Highway Vehicles Z. Bareket D. F. Blower C. MacAdam The University of Michigan Transportation Research Institute August 31,2000 Technical Report Documen~tationPage Table of Contents 1. Overview ..................... ..........................................................................................1 2 . Crash Data Analysis of Truck Tire Blowouts ........................................ 3 Truck tire blowouts in FARS (Fatality Analysis Reporting System) and TIFA (Trucks Involved in Fatal Accidents) ........................................................................................3 Truck tire blowouts in GES .........................................................................................8 Fatalities and injuries in truck tire blowout crashes ..................................................10 State data analysis ....................................................................................................10 Crashes related to truck tire debris ...........................................................................12 3 . Information Review of Truck Tire Blowouts .........................................................15 Literature Review ................. .............................................................................15 Federal Motor Carrier Safety Regulations, Rules and Notices ...................................21 Patent Database Research ....................... .. .......................................................23 -
FAA Advisory Circular 20-97B
Subject: AIRCRAFT TIRE MAINTENANCE Date: 4/18/05 AC No.: 20-97B AND OPERATIONAL PRACTICES Initiated by: AFS-306 Change: 1. PURPOSE. This advisory circular (AC) provides recommended tire care and maintenance practices needed to assure the safety of support personnel and the continued airworthiness of aircraft. Specifically, this AC provides guidance on the installation, inflation, maintenance, and removal of aircraft tires. In addition, this AC provides guidance on those operational practices necessary to maintain safe aircraft operations. This AC is not mandatory and does not constitute a regulation. It is issued for guidance purposes and to outline acceptable tire maintenance and operational practices. In lieu of following this method without deviation, operators may elect to follow an alternative method that has also been found acceptable by the Federal Aviation Administration (FAA). 2. CANCELLATION. AC 20-97A, High-Speed Tire Maintenance and Operational Practices, dated May 13, 1987, is cancelled. 3. RELATED REGULATIONS AND DOCUMENTS. a. Title 14 of the Code of Federal Regulations (14 CFR): (1) Part 21, subpart O, Technical Standard Order Authorizations. (2) Part 23, Airworthiness Standards: Normal, Utility, Acrobatic, and Commuter Category Airplanes. (3) Part 25, Airworthiness Standards: Transport Category Airplanes. (4) Part 27, Airworthiness Standards: Normal Category Rotorcraft. (5) Part 29, Airworthiness Standards: Transport Category Rotorcraft. (6) Part 43, Maintenance, Preventive Maintenance, Rebuilding, and Alteration. (7) Part 145, Repair Stations. b. FAA ACs. Copies of the following ACs may be obtained from the U.S. Department of Transportation, Subsequent Distribution Center, Ardmore East Business Center, 3341 Q 75th Avenue, Landover, MD 20785, and may be downloaded at the following Web site: http://www.faa.gov/avr/afs/acs/ac-idx.htm. -
Exxon™ Butyl Rubber Innertube Technology Manual
Exxon™ butyl rubber Exxon™ butyl rubber innertube technology manual Country name(s) 2 - Exxon™ butyl rubber innertube technology manual Exxon™ butyl rubber innertube technology manual - 3 Abstract Many bias and radial tires have innertubes. Radial truck tube-type tires are particularly common, and in many instances, such as in severe service, off-road applications, are preferred over tubeless radial tire constructions. The technology requirements for tubes for such tires is, in many respects, equally demanding when compared to that for the tire and wheel in the assembly. This manual has been prepared to describe how butyl rubber is important in meeting the demanding performance requirements of tire innertubes. Representative innertube compound formulations and compound properties are discussed along with typical processing guidelines of the compound in the manufacture of innertubes. Chlorobutyl rubber based compound formulations are also used in innertubes. Such innertubes show good heat resistance, durability, allow greater flexibility in compounding, and process equally well as regular butyl rubber tube compounds. An extensive discussion of bicycle tire innertubes has been included. Service conditions can range from simple commuting and recreation to high speed competitive sporting applications. Like automobile and truck tire innertubes, tubes for bicycle tires can thus have demanding performance requirements. Guidelines on troubleshooting provide a checklist for the factory process engineer to enhance manufacturing efficiency, high -
The New Zealand & Australian Experience with Central Tyre Inflation
TheThe NewNew ZealandZealand && AustralianAustralian ExperienceExperience withwith CentralCentral TyreTyre InflationInflation Neil Wylie Innovative Transport Equipment Ltd Log Transport Safety Council Tyre Development • 1846 – Robert William Thomson invented and patented the pneumatic tire • 1888 – First commercial pneumatic bicycle tire produced by Dunlop • 1889 – John Boyd Dunlop patented the pneumatic tire in the UK • 1890 – Dunlop, and William Harvey Du Cros began production of pneumatic tires in Ireland • 1890 – Bartlett Clincher rim introduced • 1891 – Dunlop's patent invalidated in favor of Thomson’s patent • 1892 – Beaded edge tires introduced in the U.S. • 1894 – E.J. Pennington invents the first balloon tire • 1895 – Michelin introduced pneumatic automobile tires • 1898 – Schrader valve stem patented • 1900 – Cord Tires introduced by Palmer (England) and BFGoodrich (U.S.) • 1903 – Goodyear Tire Company patented the first tubeless tire, however it was not introduced until 1954 • 1904 – Goodyear and Firestone started producing cord reinforced tires • 1904 – Mountable rims were introduced that allowed drivers to fix their own flats • 1908 – Frank Seiberling invented grooved tires with improved road traction • 1910 – BFGoodrich Company invented longer life tires by adding carbon black to the rubber • 1919 – Goodyear and Dunlop announced pneumatic truck tires[2] • 1938 – Goodyear introduced the rayon cord tire • 1940 – BFGoodrich introduced the first commercial synthetic rubber tire • 1946 – Michelin introduced the radial tire • -
Tubeless Kit Instructions
Tubeless Kit Instructions Hi there. Thanks for spending your hard-earned cash on this Surly product. Surly stuff is designed to be useful and durable. We’re confident it will serve you well for years to come. WARNING: Cycling can be dangerous. Bicycle products should be installed and serviced by a professional mechanic. Never modify your bicycle or accessories. Read and follow all product instructions and warnings including information on the manufacturer’s website. Inspect your bicycle before every ride. Always wear a helmet. For additional safety information about all Surly products visit: surlybikes.com/safety Tubeless Kit Compatibility and Intended Use This kit is intended to only be used with the Surly MOBD rims and tubeless ready tires. We recommend a Surly or 45NRTH tubeless ready tire for best performance. Parts Included • Surly nylon rim strip (qty 2) • Tubeless valve (qty 2) • Problem Solver valve nut (qty 2) • Whisky Tubeless Rim Tape 80mm wide Recommended for Installation • Surly MOBD rims • Tubeless compatible tire • Tubeless tire sealant and sealant injector Tools Needed • Scissors or blade • Rubbing alcohol • Safety glasses • Awl • Air compressor or high volume pump • Clean rag • Valve core removal tool Installation of the Tubeless Kit 1. Clean inner surface of rim thoroughly with lint free rag and rubbing alcohol. Any debris or residue left on rim could inhibit the tape from properly adhering to the rim and create an air leak. Allow rim to dry before moving on to the next step. 2. Install rim strip. Pull (wrestle) the rim strip on to the rim. Make sure that the strip is centered on the rim and that the valve hole lines up with the valve hole in the rim. -
Information on Tire Radial Force Variation (RFV)
Information on Tire Radial Force Variation (RFV) 2019 and Prior GM Passenger Cars and Light Duty Trucks This Bulletin also applies to any of the above models that may be Export from North America vehicles. This Bulletin has been revised to add the 2018 and 2019 Model Year. Please discard Corporate Bulletin Number 00-03-10-006M. Important Before measuring tires on GM approved tire force variation measurement equipment, the vehicle MUST be driven a minimum of 24 km (15 mi) to ensure removal of any flat-spotting. Refer to the latest version of Corporate Bulletin Number 03-03-10-007: Tire/Wheel Characteristics of GM Original Equipment Tires. GM approved tire force variation measurement equipment MUST be calibrated prior to measuring tire/wheel assemblies for each vehicle. Note If the equipment being used is capable of performing a centering check, the centering check must be completed before taking measurements of balance or RFV. The purpose of this bulletin is to provide guidance to GM dealers when using GM approved tire force variation measurement equipment. This type of equipment can be a valuable tool in diagnosing vehicle ride concerns. The most common ride concern involving tire radial force variation is highway speed (105-115 km/h (65-70 mph) shake on smooth roads. Tire related smooth road highway speed shake can be caused by three conditions: imbalance, out of round and tire force variation. These three conditions are not necessarily related. All three conditions must be addressed. Imbalance is normally addressed first, because it is the simplest of the three to correct. -
Managing End-Of-Life Tires
Managing End-of-Life Tires Full report World Business Council for Sustainable Development Contents WBCSD Tire Industry Project: An introduction 1 The life of a tire: Facts and trends 2 What are tires made of? What is the environmental impact of a tire during its life cycle? What is an end-of-life tire? End-of-life tire generation and recovery worldwide How does the end-of-life tire recovery rate compare with other goods? End-of-life tire uses: Numerous possibilities, existing and under development 6 Why use end-of-life tires and for what purposes? Energy recovery Material recovery Other innovative and emerging uses for end-of-life tires Management systems for collecting and recovering end-of-life tires 11 Tire industry responsibility Government/community responsibility Free market approach Landfill and waste piles End-of-life tire management in developing regions What is the future outlook? 13 Useful resources 14 Photo credits: © Lebanmax – Fotolia.com © www.guardian.co.uk/business/gallery/2007 Copyright: © WBCSD, November 2008 ISBN: 978-3-940388-31-5 Printer: Atar Roto Presse SA, Switzerland Printed on paper containing 50% recycled content and 50% from mainly certified forests (FSC and PEFC). 100% chlorine free. ISO 14001 certified mill. WBCSD Tire Industry Project: An introduction Today, when people think of the environmental impacts of tires, they mostly focus on the management of tires at the end of their useful lives (end-of-life tires, or ELTs), as this topic usually draws the most public attention. Globally, an estimated one billion tires reach the end of their useful lives every year. -
The Tracker | January – March 2019 | Tirecraft.Com FALL 2021
FALL 2021 THE PUBLICATION FOR TIRE PROFESSIONALS FROM WESTERN CANADA TIRE DEALERS DIALLING IN THE EV CHARGED WITH OPPORTUNITY PLUS • Covid Conundrum • EV Tire Evolution • How to Foil Phishing • Looking for Labour • OK Tire Awards • Valve Stems Get Respect Join one of Canada’s fastest growing retail tire brands. TIRECRAFT is a network of 250+ independantly owned and operated retail tire and automotive repair businesses across Canada. National Branding Preferred Programs Operational Support Digital/Traditional marketing and Access to exclusive tire and parts Training, coaching, performance groups a nationally recognized brand. programs at preferred pricing. based on proven proft-driving methods. Learn more about becoming a TIRECRAFT dealer today by contacting the representative closest to you. AB BC SK/MB Ray Lehman Clare Lowe Dan Johnson 780-733-2239 236-688-3668 587-337-6848 [email protected] [email protected] [email protected] 2 The Tracker | January – March 2019 | www.wctd.ca tirecraft.com FALL 2021 Published by Western Canada Tire Dealers Publication Mail Agreement No.40050841 65 Woodbine Road, Sherwood Park, AB T8A 4A7 • Phone 780-554-9259 Return undeliverable Canadian addresses to: Circulation Department 65 Woodbine Road, Sherwood Park, AB T8A 4A7 WCTD EXECUTIVE 2020-2021 Email: [email protected] www.wctd.ca PRESIDENT - NEAL SHYMKO PAST PRESIDENT - PAUL MCALDUFF VICE PRESIDENT - TIM HOLLETT EXECUTIVE DIRECTOR - RAY GELETA We hope you fnd this issue of The Tracker informative, educa- 65 Woodbine Road, Sherwood Park, AB T8A 4A7 tional and entertaining. We welcome your feedback and invite Phone 780-554-9259 Email: [email protected] you to submit any ideas you have for upcoming issues. -
Bioinspired Surfaces Adapted from Lotus Leaves for Superliquiphobic Properties DISSERTATION Presented in Partial Fulfillment Of
Bioinspired Surfaces Adapted from Lotus Leaves for Superliquiphobic Properties DISSERTATION Presented in Partial Fulfillment of the Requirements for the Degree Doctor of Philosophy in the Graduate School of The Ohio State University By Samuel Graeme Martin, M.S. Graduate Program in Mechanical Engineering The Ohio State University 2017 Dissertation Committee: Professor Noriko Katsube, Advisor Professor Anthony Luscher Professor Shaurya Prakash Copyrighted by Samuel Graeme Martin 2017 Abstract Nature can be turned to for inspiration into novel engineering designs that help address scientific difficulties. Through evolution, nature has created efficient and multipurpose objects using commonly occurring materials. These objects have many applications that can aid humanity and can be of commercial interest. One technical difficulty that nature can help solve includes liquid repellency. Inspiration for extreme liquid repellency, also known as superliquiphobicity, can be found on lotus leaves (Nelumbo nucifera) due to their extreme water repellency. The motivation for studying the surface of lotus leaves is that their unique surface features can be adapted for commercial applications to save time, money, and lives. Nature has a limited material toolbox, but by incorporating synthetic materials and better manufacturing processes, the surface properties can be enhanced. Mimicking these biological structures and using them for design inspirations is the field of biomimetics. In this thesis, an introduction chapter on biomimetics and liquid repellency is first presented. These principles are referred to throughout the thesis for creating superliquiphobic surfaces. Next, a chapter on experimental procedure and sample characterization is presented. Afterwards, three chapters are presented containing original research on surfaces inspired by lotus leaves for liquid repellency. -
1 WHEEL & RIM INSTRUCTIONS Compatibility & Intended Use
WHEEL & RIM INSTRUCTIONS Thank you for choosing Whisky Parts Co. Whisky designs bicycle parts and • Mounting the wrong size tires can result in the tire contacting the fork accessories that deliver top-tier performance at every turn, so you can ride or frame. That type of contact can stop the wheel, causing a loss of steering with confidence. Please take the time to register your product before hitting and overall control, ejection from the bike and serious injury. Never mount the trails. oversized tires on your rims and always make sure your tires have the WARNING: Cycling can be dangerous. Bicycle products should be installed proper clearance between the fork and frame while riding and when the and serviced by a professional mechanic. Never modify your bicycle or suspension is fully compressed. The tires you choose must also be accessories. Read and follow all product instructions and warnings including compatible with your bike’s fork and frame design information on the manufacturer’s website. Inspect your bicycle before every • In addition, follow the manufacturer’s recommendations for your front fork use. Always wear a helmet. and rear shocks • Rims that are too narrow with respect to the tire width can adversely affect Compatibility & Intended Use: ASTM 3 the tire’s stability and possibly cause a tire to roll or detach from the rim, Tire measurement sidewall markings may be different than the actual leading to a crash and serious injury. Overly wide rims change the shape measured size of the tire when installed. When installing a new tire inspect of the tire and ultimately its handling. -
Nonlinear Finite Element Modeling and Analysis of a Truck Tire
The Pennsylvania State University The Graduate School Intercollege Graduate Program in Materials NONLINEAR FINITE ELEMENT MODELING AND ANALYSIS OF A TRUCK TIRE A Thesis in Materials by Seokyong Chae © 2006 Seokyong Chae Submitted in Partial Fulfillment of the Requirements for the Degree of Doctor of Philosophy August 2006 The thesis of Seokyong Chae was reviewed and approved* by the following: Moustafa El-Gindy Senior Research Associate, Applied Research Laboratory Thesis Co-Advisor Co-Chair of Committee James P. Runt Professor of Materials Science and Engineering Thesis Co-Advisor Co-Chair of Committee Co-Chair of the Intercollege Graduate Program in Materials Charles E. Bakis Professor of Engineering Science and Mechanics Ashok D. Belegundu Professor of Mechanical Engineering *Signatures are on file in the Graduate School. iii ABSTRACT For an efficient full vehicle model simulation, a multi-body system (MBS) simulation is frequently adopted. By conducting the MBS simulations, the dynamic and steady-state responses of the sprung mass can be shortly predicted when the vehicle runs on an irregular road surface such as step curb or pothole. A multi-body vehicle model consists of a sprung mass, simplified tire models, and suspension system to connect them. For the simplified tire model, a rigid ring tire model is mostly used due to its efficiency. The rigid ring tire model consists of a rigid ring representing the tread and the belt, elastic sidewalls, and rigid rim. Several in-plane and out-of-plane parameters need to be determined through tire tests to represent a real pneumatic tire. Physical tire tests are costly and difficult in operations. -
Scotland 03 / 2010 Neil Wylie Innovative Transport Equipment Ltd Tyre Development
Timber Hauliers Conference Scotland 03 / 2010 Neil Wylie Innovative Transport Equipment Ltd Tyre Development • 1846 – Robert William Thomson invented and patented the pneumatic tire • 1888 – First commercial pneumatic bicycle tire produced by Dunlop • 1889 – John Boyd Dunlop patented the pneumatic tire in the UK • 1890 – Dunlop, and William Harvey Du Cros began production of pneumatic tires in Ireland • 1890 – Bartlett Clincher rim introduced • 1891 – Dunlop's patent invalidated in favor of Thomson’s patent • 1892 – Beaded edge tires introduced in the U.S. • 1894 – E.J. Pennington invents the first balloon tire • 1895 – Michelin introduced pneumatic automobile tires • 1898 – Schrader valve stem patented • 1900 – Cord Tires introduced by Palmer (England) and BFGoodrich (U.S.) • 1903 – Goodyear Tire Company patented the first tubeless tire, however it was not introduced until 1954 • 1904 – Goodyear and Firestone started producing cord reinforced tires • 1904 – Mountable rims were introduced that allowed drivers to fix their own flats • 1908 – Frank Seiberling invented grooved tires with improved road traction • 1910 – BFGoodrich Company invented longer life tires by adding carbon black to the rubber • 1919 – Goodyear and Dunlop announced pneumatic truck tires[2] • 1938 – Goodyear introduced the rayon cord tire • 1940 – BFGoodrich introduced the first commercial synthetic rubber tire • 1946 – Michelin introduced the radial tire • 1947 – Goodyear introduced first nylon tires • 1947 – BFGoodrich introduced the tubeless tire • 1963 – Use of