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Article
A Function Generation Synthesis Methodology for All Defect-Free Slider-Crank Solutions for Four Precision Points
Journal of Mechanisms and Robotics
  • Ali Almandeel, University of Dayton
  • Andrew P. Murray, University of Dayton
  • David H. Myszka, University of Dayton
  • Herbert E. Stumph, III, Stress Engineering Services
Document Type
Article
Publication Date
8-1-2015
Abstract

The well-established methodology for slider-crank function generation states that five precision points can be achieved without structural error. The resulting designs, however, do not necessarily satisfy all of the kinematic requirements for designing a slider-crank linkage used in common machine applications such as driving the ram of a mechanical press.

First, linkage solutions to the five precision point synthesis problem may need to change circuits to reach the precision points. Second, there is no guarantee that the input crank is fully rotatable. This paper presents a modification to the function generation synthesis methodology that reveals a continuum of defect-free, slider-crank solutions for four precision points. Additionally, the methodology allows the specification of velocity or acceleration at the precision points. Although smaller accelerations at a point of zero slide velocity are associated with longer dwell, a point having zero velocity and acceleration is shown not to be possible. Examples are included to illustrate this kinematic synthesis methodology.

Inclusive pages
031020-1 to 031020-10
ISBN/ISSN
1942-4302
Comments

Permission documentation is on file.

Publisher
American Society of Mechanical Engineers
Peer Reviewed
Yes
Citation Information
Ali Almandeel, Andrew P. Murray, David H. Myszka and Herbert E. Stumph. "A Function Generation Synthesis Methodology for All Defect-Free Slider-Crank Solutions for Four Precision Points" Journal of Mechanisms and Robotics Vol. 7 Iss. 3 (2015)
Available at: http://works.bepress.com/andrew-murray/1/