Joining of Stepped Shaft and Disc by Forming

Kenji Hirota; Kazuhiko Kitamura; Yoshihiko Ukai; Keiichi Matsunaga

doi:10.4028/www.scientific.net/KEM.716.458

Paper Titles

Improvement of Fatigue Strength of Hole Edge of Ultra-High Strength Steel Sheet by Punching Process Including Thickening
p.428

Influence of Burnishing Conditions on Burnishing Force and Application of Coated Roller in Inclined Roller Burnishing
p.435

Influence of Cutting Processes on Edge Cracking Sensitivity of Bright Finishing Alloys
p.443

Investigation of the Relationship between Material Flow and Rollover in Double-Sided Shearing Using Image Processing
p.451

Joining of Stepped Shaft and Disc by Forming
p.458

Microstructure and Mechanical Properties of Ti/Cu Clads Manufactured by Explosive Bonding at Different Stand-Off Distances
p.464

Optimized Cooling Strategies for Bainitic Forging Steels
p.472

Prediction of Failure Mode in Hole Clinching of Al Alloy and Advanced High-Strength Steel
p.481

Prevention of Local Thinning and Springback in Hot Stamping of Thin Sheets
p.487

HomeKey Engineering MaterialsKey Engineering Materials Vol. 716Joining of Stepped Shaft and Disc by Forming

Joining of Stepped Shaft and Disc by Forming

Abstract:

Joining by forming is an attractive assembly method for mass produced parts due to easiness in execution, no heat effect, various material combinations etc. and industrial applications have been increased in electric and automotive industries. In this paper, a disc plate and stepped shaft is assembled by forming. Assembling is achieved by indenting the disc with a stepped and grooved shaft up to a certain depth. Through the experiments using an aluminum disc and a steel shaft, the influence of the overlap length and penetrating depth of the stepped section on joining force, axial strength and dimensional change of the disc plate are investigated. Disassembling tests revealed that the joint by the proposed method had sufficient axial strength if the groove of the shaft was completely filled.

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Periodical:

Key Engineering Materials (Volume 716)

Pages:

458-463

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.716.458

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Online since:

October 2016

Authors:

Kenji Hirota*, Kazuhiko Kitamura, Yoshihiko Ukai, Keiichi Matsunaga

Keywords:

Forming, Joining, Joining Strength, Shaft Product

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* - Corresponding Author

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