Buch, Englisch, 743 Seiten, Format (B × H): 178 mm x 254 mm, Gewicht: 1271 g
Buch, Englisch, 743 Seiten, Format (B × H): 178 mm x 254 mm, Gewicht: 1271 g
ISBN: 978-1-138-07589-4
Verlag: CRC Press
The first book of its kind, Theory of Gearing: Kinematics, Geometry, and Synthesis systematically develops a scientific theory of gearing that makes it possible to synthesize novel gears with the desired performance. Written by a leading gearing expert who holds more than 200 patents, it presents a modern methodology for gear design.
The proposed theory is based on a key postulate: all the design parameters for an optimal gear pair for a particular application can be derived from (a) a given configuration of the rotation vectors of the driving and driven shafts and (b) the power transmitted by the gear pair. This allows engineers to synthesize the desired gear pairs with only the following input information:
The rotation and torque on the driving shaft
The configuration of the driven shaft in relation to the driving shaft
The desired rotation and torque of the driven shaft
Beginning with the fundamentals, the book reconsiders the basic theory of kinematics and geometry of gears to provide a sound basis for the evaluation and development of future designs. It then examines ideal and real gearing for parallel-axis, intersected-axis, and crossed-axis gearing. The book addresses how to minimize vibration and noise in gears, discusses aspects of implementing the theory of gearing, and analyzes principal features of power transmission and the loading of gear teeth. More than 500 figures clearly illustrate the principles.
This is an invaluable resource for engineers and researchers who work in gear design, gear production, and the application of gears as well as for students in mechanical and manufacturing engineering. Covering all known gear designs, this book offers an analytical solution to the problem of designing optimal gear pairs for any given application. It also encourages researchers to further develop the theory of gearing.
Zielgruppe
Engineers involved in gear design and analysis in mechanical, automotive, and aerospace engineering; researchers working with new methodologies for gear design; and mechanical, aerospace, and automotive engineering students studying machine design and gear technology.
Autoren/Hrsg.
Fachgebiete
Weitere Infos & Material
SynthesisKinematics of a Gear PairGeometry of Gear Tooth Flanks: Preliminary DiscussionGeometry of Contact of Tooth Flanks of Two Gears in MeshConcept of Synthesis of a Gear Pair with Prescribed PerformanceIdeal Gearing: Parallel-Axis GearingInvolute GearingNoninvolute GearingHigh-Conforming Parallel-Axis GearingSynthesis of Optimal Parallel-Axis GearingIdeal Gearing: Intersected-Axis GearingGeometrically Accurate Intersected-Axis Gear PairsHigh-Conforming Intersected-Axis GearingIdeal Gearing: Crossed-Axis GearingGeometrically Accurate Crossed-Axis Gearing: R-GearingHigh-Conforming Crossed-Axis GearingIdeal (Geometrically Accurate) Two-Degree-of-Freedom GearingKinematics, Geometry, and Design Features of 2-DOF GearingReal Gears and Their Application: Real GearingDesired Real Gearing: Spr-GearingApproximate Real GearingGeneric Gear ShapeGear NoiseReal Gears and Their Application: Gear TrainsGear Ratio of a Multistage Gear DriveSplit Gear DrivesReal Gears and Their Application: Principal Features of Power Transmission and Loading of the Gear TeethLocal Geometry of the Interacting Tooth FlanksContact Stresses in Low-Tooth-Count GearingApplication of the Results Derived from Theory of GearingConclusionAppendix A: Elements of Coordinate Systems TransformationsAppendix B: Novikov’s Gearing Invention DisclosureAppendix C: Wildhaber’s Gearing Invention DisclosureAppendix D: Engineering Formulas for the Specification of Gear Tooth FlanksAppendix E: Change of Surface ParametersAppendix F: NotationsAppendix G: GlossaryReferencesBibliographyIndex