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Please use this identifier to cite or link to this item: http://hdl.handle.net/10210/1738

Title: Numerical kinematic and kinetic analysis of a new class of twelve bar linkage for walking machines
Authors: Ingram, Anthony James
Keywords: Kinematics of machinery
Mechanical movements
Motion control devices
Issue Date: 19-Nov-2008
Abstract: This study describes a new class of mechanism to provide leg like motion, for use in a new type of walking machine, that is larger and simpler than electromechanical machines that are currently available. The mechanism is located in a historic context, and current technology in this area is reviewed. The problem of calculating the geometry of the complex mechanism is solved using an innovative solution based on coordinate geometry, which may be extended to solve other planar mechanisms of either greater or lesser complexity. All assumptions have been detailed. The analysis covers both the motion and the power requirements required to make the mechanism move. Structural aspects, which may affect any practical walking machine, are covered. A software implementation has been developed, providing output to demonstrate that the model developed reflects reality, within the limits of the assumptions made.
Description/Qualification: M.Ing.
URI: http://hdl.handle.net/10210/1738
Appears in Collections:Department of Mechanical and Manufacturing Engineering

Files in This Item:

File Description SizeFormat
Composite4.pdf22KbAdobe PDFView/Open
CompositeLink1.pdf24KbAdobe PDFView/Open
Node.gif2208KbGIFView/Open
120slice15rpm.pdf107KbAdobe PDFView/Open
Composite2.pdf23KbAdobe PDFView/Open
Composite5.pdf22KbAdobe PDFView/Open
Composite7.pdf22KbAdobe PDFView/Open
ForceVector200.pdf16KbAdobe PDFView/Open
ForceVectors120.pdf17KbAdobe PDFView/Open
ForceVectors150.pdf17KbAdobe PDFView/Open
ForceVectors170.pdf16KbAdobe PDFView/Open
ForceVectors190.pdf15KbAdobe PDFView/Open
ForceVectors220.pdf17KbAdobe PDFView/Open
linkB.pdf12KbAdobe PDFView/Open
Node3.pdf19KbAdobe PDFView/Open
Node4.pdf19KbAdobe PDFView/Open
Composite8.pdf21KbAdobe PDFView/Open
ForceVectors100.pdf17KbAdobe PDFView/Open
ForceVectors130.pdf17KbAdobe PDFView/Open
Node1a.pdf19KbAdobe PDFView/Open
Workdue.pdf16KbAdobe PDFView/Open
Workliftingweight.pdf16KbAdobe PDFView/Open
Axial.pdf21KbAdobe PDFView/Open
Composit10.pdf22KbAdobe PDFView/Open
Composite6.pdf22KbAdobe PDFView/Open
Dynamics.pdf180KbAdobe PDFView/Open
ForceVectors110.pdf17KbAdobe PDFView/Open
ForceVectors140.pdf17KbAdobe PDFView/Open
ForceVectors160.pdf16KbAdobe PDFView/Open
ForceVectors180.pdf15KbAdobe PDFView/Open
ForceVectors210.pdf16KbAdobe PDFView/Open
Link.pdf26KbAdobe PDFView/Open
Linkgraph.pdf28KbAdobe PDFView/Open
MechanismAWalking.gif4016KbGIFView/Open
Validationlinkage.pdf38KbAdobe PDFView/Open
Worklifting.pdf20KbAdobe PDFView/Open
Workovercoming.pdf19KbAdobe PDFView/Open
AnimationA.gif2982KbGIFView/Open
Animationnode.gif2431KbGIFView/Open
Composite3.pdf22KbAdobe PDFView/Open
Mechanism.pdf16KbAdobe PDFView/Open
Numerical.pdf920KbAdobe PDFView/Open
Node.pdf13KbAdobe PDFView/Open


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