Theoretical study of collective effect of laser surface textured mechanical seal with oblique distributed pore face
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Theoretical study of collective effect of laser surface textured mechanical seal with oblique distributed pore face
CIESC JournalIssue 2, Pages: 444-449(2010)
作者机构:
1. 浙江工业大学过程装备及其再制造教育部工程研究中心
2. 中国石化股份有限公司广州分公司机动部
作者简介:
基金信息:
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Online First:05 February 2010,
Published:05 February 2010
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LIU Xin, PENG Xudong, MENG Xiangkai, et al. Theoretical study of collective effect of laser surface textured mechanical seal with oblique distributed pore face[J]. CIESC Journal, 2010, (2): 444-449.
DOI:
LIU Xin, PENG Xudong, MENG Xiangkai, et al. Theoretical study of collective effect of laser surface textured mechanical seal with oblique distributed pore face[J]. CIESC Journal, 2010, (2): 444-449.DOI:
Theoretical study of collective effect of laser surface textured mechanical seal with oblique distributed pore face
Laser surface texturing (LST) has been used in mechanical seal for nearly 10 years
and the modeling and experiments have been made for determining the dimensions that characterize LST
but many works still remains to be done in choosing suitable texture and optimizing the dimension designs to help retain lubricant and enhances the hydrodynamic effect at the interface in the running fields.Based on the study of collective effect of a laser-textured mechanical seal with a radial distributed micropore face
a theoretical analysis model for a laser-textured mechanical seal with an oblique distributed micropore face was developed
by which the fluid film pressure distribution between the faces was obtained.The variation of fluid film stiffness and opening force with oblique angle
pore column number
and face radial ratio under different operation conditions was studied
and the load carrying capacity and its mechanisms were presented.The results showed that when the oblique angle was between 60°and 90°
both the radial pore number and the circumferential pore number was equal or the number differences were controlled within the range of ±1
excellent sealing performance could be obtained for a laser-textured mechanical seal with an oblique distributed pore face.