Design and Fabrication of Bicycle Driven by Shaft and Gear System
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Copake Auction Inc. PO BOX H - 266 Route 7A Copake, NY 12516
Copake Auction Inc. PO BOX H - 266 Route 7A Copake, NY 12516 Phone: 518-329-1142 December 1, 2012 Pedaling History Bicycle Museum Auction 12/1/2012 LOT # LOT # 1 19th c. Pierce Poster Framed 6 Royal Doulton Pitcher and Tumbler 19th c. Pierce Poster Framed. Site, 81" x 41". English Doulton Lambeth Pitcher 161, and "Niagara Lith. Co. Buffalo, NY 1898". Superb Royal-Doulton tumbler 1957. Estimate: 75.00 - condition, probably the best known example. 125.00 Estimate: 3,000.00 - 5,000.00 7 League Shaft Drive Chainless Bicycle 2 46" Springfield Roadster High Wheel Safety Bicycle C. 1895 League, first commercial chainless, C. 1889 46" Springfield Roadster high wheel rideable, very rare, replaced headbadge, grips safety. Rare, serial #2054, restored, rideable. and spokes. Estimate: 3,200.00 - 3,700.00 Estimate: 4,500.00 - 5,000.00 8 Wood Brothers Boneshaker Bicycle 3 50" Victor High Wheel Ordinary Bicycle C. 1869 Wood Brothers boneshaker, 596 C. 1888 50" Victor "Junior" high wheel, serial Broadway, NYC, acorn pedals, good rideable, #119, restored, rideable. Estimate: 1,600.00 - 37" x 31" diameter wheels. Estimate: 3,000.00 - 1,800.00 4,000.00 4 46" Gormully & Jeffrey High Wheel Ordinary Bicycle 9 Elliott Hickory Hard Tire Safety Bicycle C. 1886 46" Gormully & Jeffrey High Wheel C. 1891 Elliott Hickory model B. Restored and "Challenge", older restoration, incorrect step. rideable, 32" x 26" diameter wheels. Estimate: Estimate: 1,700.00 - 1,900.00 2,800.00 - 3,300.00 4a Gormully & Jeffery High Wheel Safety Bicycle 10 Columbia High Wheel Ordinary Bicycle C. -
26″ Hyper HBC Cruisers Manual
The following manual is only a guide to assist you and is not a complete or comprehensive manual of all aspects of maintaining and repairing your bicycle. The bicycle you have purchased is a complex object. Hyper Bicycles recommends that you consult a bicycle specialist if you have doubts or concerns as to your experience or ability to properly assemble, repair, or maintain your bicycle. You will save time and the inconvenience of having to go back to the store if you choose to write or call us concerning missing parts, service questions, operating advice, and/or assembly questions. 177 Malaga Park Dr. Malaga, NJ 08328 Call Toll Free SERIAL NUMBER LOCATION 1-866-204-9737 Local 417-206-0563 Bottom View Fax: 775-248-5155 Monday-Friday 8:00AM to 5:00PM (CST) For product related questions email us at: [email protected] For customer service questions email us at: [email protected] IMPORTANT NOTICE WRITE YOUR SERIAL NUMBER HERE serial number Keep your serial number handy in case of damage, loss or theft. B I C Y C L E O W N E R ’ S M A N U A L Contents SAFETY Safety Equipment 2 Mechanical Safety Check 3 Riding Safety 5 IMPORTANT NOTE TO PARENTS 5 Rules of the Road 7 Rules of the Trail 9 Wet Weather Riding 10 Night Riding 10 Bicycling in Traffic 12 ASSEMBLY, MAINTENANCE May not be May not be AND ADJUSTMENT exactly as exactly as illustrated illustrated Fenders 30 NEW OWNER Warranty 36 Purchase Record 37 VISIT US ONLINE@ M A X W E I G H T : 2 7 5 l b s www.hyperbicycles.com This manual contains important safety, performance If you have a problem, do not return to the store, and maintenance information. -
Parametric Instability Investigation and Stability Based Design for Transmission Systems Containing Face-Gear Drives
University of Tennessee, Knoxville TRACE: Tennessee Research and Creative Exchange Doctoral Dissertations Graduate School 8-2012 Parametric Instability Investigation and Stability Based Design for Transmission Systems Containing Face-gear Drives Meng Peng [email protected] Follow this and additional works at: https://trace.tennessee.edu/utk_graddiss Part of the Acoustics, Dynamics, and Controls Commons, and the Propulsion and Power Commons Recommended Citation Peng, Meng, "Parametric Instability Investigation and Stability Based Design for Transmission Systems Containing Face-gear Drives. " PhD diss., University of Tennessee, 2012. https://trace.tennessee.edu/utk_graddiss/1434 This Dissertation is brought to you for free and open access by the Graduate School at TRACE: Tennessee Research and Creative Exchange. It has been accepted for inclusion in Doctoral Dissertations by an authorized administrator of TRACE: Tennessee Research and Creative Exchange. For more information, please contact [email protected]. To the Graduate Council: I am submitting herewith a dissertation written by Meng Peng entitled "Parametric Instability Investigation and Stability Based Design for Transmission Systems Containing Face-gear Drives." I have examined the final electronic copy of this dissertation for form and content and recommend that it be accepted in partial fulfillment of the equirr ements for the degree of Doctor of Philosophy, with a major in Mechanical Engineering. Hans A. DeSmidt, Major Professor We have read this dissertation and recommend its acceptance: J. A. M. Boulet, Seddik M. Djouadi, Xiaopeng Zhao Accepted for the Council: Carolyn R. Hodges Vice Provost and Dean of the Graduate School (Original signatures are on file with official studentecor r ds.) Parametric Instability Investigation and Stability Based Design for Transmission Systems Containing Face-gear Drives A Dissertation Presented for the Doctor of Philosophy Degree The University of Tennessee, Knoxville Meng Peng August 2012 ACKNOWLEDGEMENTS I would like to express my deepest gratitude to my primary advisor, Dr. -
Forklift Differentials
Forklift Differentials Forklift Differential - A mechanical device which could transmit rotation and torque through three shafts is known as a differential. At times but not at all times the differential would use gears and will operate in two ways: in automobiles, it provides two outputs and receives one input. The other way a differential works is to combine two inputs in order to produce an output that is the sum, average or difference of the inputs. In wheeled vehicles, the differential enables all tires to be able to rotate at various speeds while supplying equal torque to all of them. The differential is intended to drive a pair of wheels with equivalent torque while enabling them to rotate at various speeds. While driving around corners, a car's wheels rotate at different speeds. Several vehicles such as karts operate without using a differential and use an axle instead. If these vehicles are turning corners, both driving wheels are forced to spin at the same speed, normally on a common axle which is driven by a simple chain-drive mechanism. The inner wheel should travel a shorter distance compared to the outer wheel while cornering. Without using a differential, the effect is the outer wheel dragging and or the inner wheel spinning. This puts strain on drive train, causing unpredictable handling, difficult driving and damage to the tires and the roads. The amount of traction necessary to move the car at whichever given moment depends on the load at that moment. How much drag or friction there is, the car's momentum, the gradient of the road and how heavy the automobile is are all contributing factors. -
Gear Nomenclature
Nomenclature Gear Gear Nomenclature Racks Bevel Gears Spur Gears B Bevel Gear, Cast Iron S Steel B Pinion, Steel TS Steel, 20° BS Bevel Gear, Steel C Cast Iron BS Pinion, Steel TC Cast Iron, 20° H Hardened Teeth Notes: NM Non-Metallic B steel pinions may run with BS gear of same ratio. R Steel ANY RATIO OTHER THAN 1:1. RA Steel, Heavy Backing Examples: Pinion and driven gear have S620 Steel 6DP 20T 14½°PA TR Steel, 20°, Heavy Backing different number of teeth. R20 Steel, 20°, Wide Face TS620 Steel 6DP 20T 20°PA C660 Cast 6DP 60T 14½°PA Examples: Examples: S620H Steel 6DP 20T Hardened 14½°PA R6X2 14½° STD Backing 6DPX2' Long B1040-2 Cast 10DP 40T 2:1 Ratio NM620 Non-Metallic 6DP 20T 14½°PA RA6X4 14½° Heavy Backing 6DPX4' Long B1020-2 Steel 10DP 20T 2:1 Ratio S612BS1 Steel 6P 12T 1" Bore KW SS TR6X6 20° STD Width 6DPX6' Long BS1040-2 Steel 10DP 40T 2:1 Ratio TS816BS7/8 Steel 8DP 16T 20°PA .875 Bore KW SS R206X6 20° Wide Face 6DPX6' Long BS1020-2 Steel 10DP 20T 2:1 Ratio BS1020-2 Steel 10DP 20T 2:1 Ratio Miter Gears Worm Worm Gear M Miter — Steel Gears W Steel W Worm, Steel A or B Larger Bore (Suffix) WH Steel With Hub WH Worm, Steel w/Hub HM Miter-Hardened Teeth Projection Projection K KW & SS WG Steel Hardened WG Worm, Steel Hardened Ground Threads Ground Threads Notes: WHG Steel Hardened Ground Threads WHG Worm, Steel Hardened ALWAYS 1: 1 RATIO. -
Technical Engineering Guide
TTEECHCHNINICALCAL EN ENGGINEEINEERRININGG 89 www.diamondchain.com TECHNICAL ENGINEERING General Drive Considerations One of the main advantages of the roller chain drive is its ability to perform well under widely varying conditions. Despite this ability, there are a number of rules of good design practice which, if considered early in the design pro- cess, will enable the user to obtain desirable results. Basic dimensions and minimum ultimate tensile requirements for single-pitch, double-pitch and attachment roller chains are specified by various standards organizations worldwide. ASME/ANSI, The American Society of Mechanical Engineers and The American National Standards Institute, defines dimensions such as: pitch, roller width, roller diameter, link plate height, link plate thickness and pin diameter. The primary purpose of the standard is to ensure that manufacturers will produce chains and sub-assemblies that are similar dimensionally and therefore interchangeable. In addition, the standard does offer the user some assurance of quality by defining a minimum ultimate tensile strength for each model of chain. However, tensile strength is not always a valid method to differentiate one manufacturer’s product from another. It is very important to remember that dimensional standardization does not define quality or performance characteristics. Minimum Ultimate Tensile Strength: Minimum Ultimate Tensile Strength, MUTS, is the static load required to break the chain. Tensile strength values shown in this catalog are not allowable working loads. Load or tension applied 1 to the chain in service should never exceed ⁄6 th of the UTS. If exceeding this value is necessary for a specific applica- tion, contact Diamond Chain. -
Shooting Star: a Biography of a Bicycle
SHOOTING STAR: A BIOGRAPHY OF A BICYCLE Geoff Mentzer 2 SHOOTING STAR: A BIOGRAPHY OF A BICYCLE Copyright © 2020 by Geoff Mentzer All rights reserved. 3 In a scientific study of various living species and machines, the most efficient at locomotion – that is, the least amount of energy expended to move a kilometre – was found to be a man on a bicycle. –SS Wilson, Scientific American, March 1973, Volume 228, Issue 3, 90 The Dandy Horse of 1818, said to be the first velocipede man-motor carriage. Sharp, Bicycles & Tricycles: An Elementary Treatise On Their Design And Construction, Longmans, Green, and Co, London, New York and Bombay, 1896, 147 4 INTRODUCTION AND ACKNOWLEDGEMENTS What began as a brief biograph of the author's forebear Walter William Curties soon doubled into a study of two men, and expanded into an account of early bicycle – and a little motoring – history in New Zealand. Curties is mostly invisible to history, while Frederick Nelson Adams – who rose to national pre-eminence in motoring circles – by his reticence and reluctance for public exposure is also largely overlooked. Pioneering New Zealand cycling and motoring history – commercial, industrial and social – have been variously covered elsewhere, in cursory to comprehensive chronicles. Sadly, factual errors that persist are proof of copy and paste research. As examples, neither Nicky Oates nor Frederick Adams' brother Harry was the first person convicted in New Zealand for a motoring offence, nor was the world's first bicycle brass band formed in New Zealand. It must be said, however, that today we have one great advantage, ie Papers Past, that progeny of the Turnbull Library in Wellington. -
23Rd Annual Antique & Classic Bicycle Auction
CATALOG PRICE $4.00 Michael E. Fallon / Seth E. Fallon COPAKE AUCTION INC. 266 Rt. 7A - Box H, Copake, N.Y. 12516 PHONE (518) 329-1142 FAX (518) 329-3369 Email: [email protected] Website: www.copakeauction.com 23rd Annual Antique & Classic Bicycle Auction Featuring the David Metz Collection Also to include a selection of ephemera from the Pedaling History Museum, a Large collection of Bicycle Lamps from the Midwest and other quality bicycles, toys, accessories, books, medals, art and more! ************************************************** Auction: Saturday April 12, 2014 @ 9:00 am Swap Meet: Friday April 11th (dawn ‘til dusk) Preview: Thur. – Fri. April 10-11: 11-5pm, Sat. April 12, 8-9am TERMS: Everything sold “as is”. No condition reports in descriptions. Bidder must look over every lot to determine condition and authenticity. Cash or Travelers Checks - MasterCard, Visa and Discover Accepted First time buyers cannot pay by check without a bank letter of credit 17% buyer's premium (2% discount for Cash or Check) 20% buyer's premium for LIVE AUCTIONEERS Accepting Quality Consignments for All Upcoming Sales National Auctioneers Association - NYS Auctioneers Association CONDITIONS OF SALE 1. Some of the lots in this sale are offered subject to a reserve. This reserve is a confidential minimum price agreed upon by the consignor & COPAKE AUCTION below which the lot will not be sold. In any event when a lot is subject to a reserve, the auctioneer may reject any bid not adequate to the value of the lot. 2. All items are sold "as is" and neither the auctioneer nor the consignor makes any warranties or representations of any kind with respect to the items, and in no event shall they be responsible for the correctness of the catalogue or other description of the physical condition, size, quality, rarity, importance, medium, provenance, period, source, origin or historical relevance of the items and no statement anywhere, whether oral or written, shall be deemed such a warranty or representation. -
FABRICATION and DEVELOPMENT of CHAINLESS BI-CYCLE Dr.Raghavendra Joshi1,Mayur.D.Pawar2, Shahid Ali3, Mohammed Bilal.K4, Rizwan5,V Muneer Ahmed6
JASC: Journal of Applied Science and Computations ISSN NO: 1076-5131 FABRICATION AND DEVELOPMENT OF CHAINLESS BI-CYCLE Dr.Raghavendra Joshi1,Mayur.D.Pawar2, Shahid ali3, Mohammed bilal.k4, Rizwan5,V Muneer Ahmed6 Professor, mechanical engineering department, BITM, Ballari-583104, Karnataka Assistant professor, mechanical engineering department,BITM, Ballari-583104, Karnataka UG student, mechanical engineering department,BITM, Ballari-583104,Karnataka UG student, mechanical engineering department,BITM, Ballari-583104,Karnataka UG student, mechanical engineering department,BITM, Ballari-583104,Karnataka UG student, mechanical engineering department,BITM, Ballari-583104,Karnataka [email protected] [email protected] [email protected] [email protected] [email protected] [email protected] Abstract— This project is developed from the users to rotate the back wheel of bi-cycle using propeller shaft. Power transmission through chain drive is the oldest and widest method in case of bi-cycle . In this paper we implemented the chainless transmission to the bicycle to overcome the various disadvantages of chain drive. Shaft drive were introduced over a century ago , but were mostly supplanted by chain driven bi-cycle . Usually in bicycle chain and sprocket is used to drive the back wheel. The shaft drive only need periodic lubrication using grease gun to keep the gears running quite and smooth. A shaft driven bi-cycle is a bi-cycle that uses a shaft drive instead of a join which consist two sprockets with bearings at the both end of shaft connected to pedal crank and rear wheel gear to make a new kind of transmission system for bi-cycle for getting high reliability system, and more safe system. -
Study of Differential Bevel Gear Through Machining Method
International Journal of Engineering and Technical Research (IJETR) ISSN: 2321-0869, Volume-1, Issue-3, May 2013 STUDY OF DIFFERENTIAL BEVEL GEAR THROUGH MACHINING METHOD Mohd Abbas, Sanjeev Sharma, Vinit Kumar Sharma Straight Path. Abstract— In this paper we have selected the machining method, a cost saving manufacturing process to produce If the left side gear (red) encounters resistance, the planet straight bevel gears without any compromise with quality gear (Green) rotates about the left side gear, in turn applying parameters, then validate the samples taken from vendor as extra rotation to the right side gear (yellow). per our design requirement and to increase Durability & Productivity of Straight Bevel Gears. To validated we have used tractor as a testing equipment and validate the gears to our design specification. Index Terms— Straight Bevel Gear, Spiral Bevel Gear Circular Pitch, Pressure Angle, Pitch Diameter, Tooth Parts. I. INTRODUCTION Power is supplied from the engine, via the gearbox, to a driveshaft, which runs to the drive axle. A pinion gear at the end of the propeller shaft is encased within the differential Figure 2: Differential Dynamics When Vehicle Takes Turn. itself, and it engages with the large crown-wheel. The crown-wheel is attached to a carrier, which holds a set of A general Gear manufacturing process contains the three-four small planetary straight bevel gears. The three following process- planetary gears are set up in such a way that the two outer gears (the side gears) can rotate in opposite directions relative to each other. The pair of side gears drive the axle shafts to each of the wheels. -
BEARING LINKAGE POWERED BICYCLE Prof
BEARING LINKAGE POWERED BICYCLE Prof. S. V. Deshpande¹, Ajinkya V. Waghade², Mayur D. Wadulkar³, Madhusudan M. Sonwane4 Sunilkumar Wagh5 1Asst. Professor, 2,3,4,5Student, Dept of Mechanical Engg, GSMCOE Balewadi, Pune (India) ABSTRACT Considering the depletion of fossil fuel resulting into pollution it is a need of time to minimize conventional power and boost the utilization of mechanical non-conventional power sources. Currently, fuel powered bicycle are available but they are using conventional source. The research entitled “BEARING LINKAGE POWERED BICYCLE” includes concept of renewable energy. Power is generated through alternator mounted at periphery of rear wheel. A chainless bicycle using bearing linkage assembly is provided for pedalling. In addition to this two small rotary fan are mounted upon the front wheel of bicycle generating power by using wind source. This generated power is supplied to mechanical motor through battery which are mounted on carrier of rear wheel. When the rider is pedalling a bicycle, a motion is transmitted from sprocket of extended shaft of motor to rear wheel through chain drive. The outcome of this system is to relief the human efforts by transmitting high speed rotation using non conventional powered motor which is also applicable for long drives. It does not affect the environment (GWG) with no fuel consumption & cost of utilization is zero. Keywords: Mechanical powered motor, non conventional power, speed ratio. I. INTRODUCTION India is the second-largest country of the world, undergoing explosive growth. Like many other countries where agriculture is the main activity, biomass and other non – commercial fuels constitute around 40% of energy requirements in India. -
Roller Drive Chain Selection and Engineering Information
sec_29.3_29.4_TI 11/19/08 12:45 PM Page 231 Roller Drive Chain Selection 29 Roller Drive Chain Selection and Engineering Information Required information for drive selection: Table 1: Service Factors 1. Type of input power (electric motor, internal combustion Type of Input Power engine, etc.). Internal Internal 2. Type of equipment to be driven. Class of Driven Combustion Combustion Electric Motor 3. Horsepower (HP) to be transmitted. Load Engine with Engine with or Turbine Information Technical Mechanical 4. Full load speed of the fastest running shaft (RPM). Hydraulic Drive Drive 5. Desired speed of the slow-running shaft. NOTE: If the speeds are variable, determine the horsepower to be Uniform 1 1 1.2 transmitted at each speed. Moderate 1.2 1.3 1.4 6. Diameters of the driver and driven shafts. Heavy 1.4 1.5 1.7 7. Center distance of the shafts. NOTE: If this distance is adjustable, determine the Step 3: Calculate the Design Horsepower. amount of adjustment. Design Horsepower = HP x Service Factor 8. Position of drive and space limitations (if any). 9. Conditions of the drive. Drives with more than two The design horsepower equals the horsepower to be sprockets, idlers, or unusual conditions such as severely transmitted times the service factor found in Table 1. abrasive or corrosive environments, severely high or low temperatures, widely fluctuating loads, frequent starts Step 4: Select the Chain Pitch. and stops, etc., require special attention. It is advisable From the Quick Selector Chart on page 234, make a to consult with Renold Jeffrey engineering personnel in tentative chain selection as follows: these situations.