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    Use of Cavitating Jet for Introducing Compressive Residual Stress

    Source: Journal of Manufacturing Science and Engineering:;2000:;volume( 122 ):;issue: 001::page 83
    Author:
    H. Soyama
    ,
    J. D. Park
    ,
    M. Saka
    DOI: 10.1115/1.538911
    Publisher: The American Society of Mechanical Engineers (ASME)
    Abstract: In an attempt to strengthen the surface of materials, the potential of using a cavitating jet to form compressive residual stress has been investigated. Introducing compressive residual stress to a material surface provides improvement of the fatigue strength and resistance to stress corrosion cracking. In general, cavitation causes damage to hydraulic machinery. However, cavitation impact can be used to form compressive residual stress in the same way as shot peening. In the initial stage, when cavitation erosion progresses, only plastic deformation, without mass loss, takes place on the material surface. Thus, it is possible to form compressive residual stress without any damage by considering the intensity and exposure time of the cavitation attack. Cavitation is also induced by ultrasonic, high-speed water tunnel and high-speed submerged water jet, i.e., a cavitating jet. The great advantage of a cavitating jet is that the jet causes the cavitation wherever the cavitation impact is required. To obtain the optimum condition for the formation of compressive residual stress by using a cavitating jet, the residual stresses on stainless steel (JIS SUS304 and SUS316) and also copper (JIS C1100) have been examined by changing the exposure time of the cavitating jet. The in-plane normal stresses were measured in three different directions on the surface plane using the X-ray diffraction method, allowing for the principal stresses to be calculated. Both of the principal stresses are found changing from tension to compression within a 10 s exposure to the cavitating jet. The compressive residual stress as a result of the cavitating jet was found to be saturated after a certain time, but it starts decreasing, and finally, it approaches zero asymptotically. It could be verified in the present study that it was possible to form compressive residual stress by using a cavitating jet, and the optimum processing time could also be realized. The great difference between the water jet in water and air has also been shown in this regard. [S1087-1357(00)00501-3]
    keyword(s): Stress , Cavitation , Water , Shot peening , Surfaces (Materials) , Pressure , Residual stresses , Cavitation erosion AND X-ray diffraction ,
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      Use of Cavitating Jet for Introducing Compressive Residual Stress

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    http://yetl.yabesh.ir/yetl1/handle/yetl/124010
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    • Journal of Manufacturing Science and Engineering

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    contributor authorH. Soyama
    contributor authorJ. D. Park
    contributor authorM. Saka
    date accessioned2017-05-09T00:02:57Z
    date available2017-05-09T00:02:57Z
    date copyrightFebruary, 2000
    date issued2000
    identifier issn1087-1357
    identifier otherJMSEFK-27355#83_1.pdf
    identifier urihttp://yetl.yabesh.ir/yetl/handle/yetl/124010
    description abstractIn an attempt to strengthen the surface of materials, the potential of using a cavitating jet to form compressive residual stress has been investigated. Introducing compressive residual stress to a material surface provides improvement of the fatigue strength and resistance to stress corrosion cracking. In general, cavitation causes damage to hydraulic machinery. However, cavitation impact can be used to form compressive residual stress in the same way as shot peening. In the initial stage, when cavitation erosion progresses, only plastic deformation, without mass loss, takes place on the material surface. Thus, it is possible to form compressive residual stress without any damage by considering the intensity and exposure time of the cavitation attack. Cavitation is also induced by ultrasonic, high-speed water tunnel and high-speed submerged water jet, i.e., a cavitating jet. The great advantage of a cavitating jet is that the jet causes the cavitation wherever the cavitation impact is required. To obtain the optimum condition for the formation of compressive residual stress by using a cavitating jet, the residual stresses on stainless steel (JIS SUS304 and SUS316) and also copper (JIS C1100) have been examined by changing the exposure time of the cavitating jet. The in-plane normal stresses were measured in three different directions on the surface plane using the X-ray diffraction method, allowing for the principal stresses to be calculated. Both of the principal stresses are found changing from tension to compression within a 10 s exposure to the cavitating jet. The compressive residual stress as a result of the cavitating jet was found to be saturated after a certain time, but it starts decreasing, and finally, it approaches zero asymptotically. It could be verified in the present study that it was possible to form compressive residual stress by using a cavitating jet, and the optimum processing time could also be realized. The great difference between the water jet in water and air has also been shown in this regard. [S1087-1357(00)00501-3]
    publisherThe American Society of Mechanical Engineers (ASME)
    titleUse of Cavitating Jet for Introducing Compressive Residual Stress
    typeJournal Paper
    journal volume122
    journal issue1
    journal titleJournal of Manufacturing Science and Engineering
    identifier doi10.1115/1.538911
    journal fristpage83
    journal lastpage89
    identifier eissn1528-8935
    keywordsStress
    keywordsCavitation
    keywordsWater
    keywordsShot peening
    keywordsSurfaces (Materials)
    keywordsPressure
    keywordsResidual stresses
    keywordsCavitation erosion AND X-ray diffraction
    treeJournal of Manufacturing Science and Engineering:;2000:;volume( 122 ):;issue: 001
    contenttypeFulltext
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