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Large scale domain switching around the tip of an impermeable stationary crack in ferroelectric ceramics driven by near-coercive electric field 被引量:3

Large scale domain switching around the tip of an impermeable stationary crack in ferroelectric ceramics driven by near-coercive electric field
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摘要 It is widely accepted that the singular term plays a leading role in driving domain switching around the crack tip of ferroelectric ceramics.When an applied electric field approaches or even exceeds the coercive one,however,non-singular terms are no longer negligible and the switching of a large or global scale takes place.To analyze the large scale switching,one has to get a full asymptotic solution to the electric field in the vicinity of the crack tip.Take a double cantilever beam specimen as an example.The derivation of the full electric field is simplified as a mixed boundary value problem of an infinite strip containing a semi-infinite impermeable crack.The boundary value problem is solved by an analytic function and a conformal mapping to yield a full electric field solution in a closed form.Based on the full field solution,the large scale domain switching is examined.The switching zones predicted by the large and small scale switching models are illustrated and compared with each other near the tip of a stationary crack. It is widely accepted that the singular term plays a leading role in driving domain switching around the crack tip of ferroelectric ceramics.When an applied electric field approaches or even exceeds the coercive one,however,non-singular terms are no longer negligible and the switching of a large or global scale takes place.To analyze the large scale switching,one has to get a full asymptotic solution to the electric field in the vicinity of the crack tip.Take a double cantilever beam specimen as an example.The derivation of the full electric field is simplified as a mixed boundary value problem of an infinite strip containing a semi-infinite impermeable crack.The boundary value problem is solved by an analytic function and a conformal mapping to yield a full electric field solution in a closed form.Based on the full field solution,the large scale domain switching is examined.The switching zones predicted by the large and small scale switching models are illustrated and compared with each other near the tip of a stationary crack.
出处 《Science China(Physics,Mechanics & Astronomy)》 SCIE EI CAS 2011年第1期121-126,共6页 中国科学:物理学、力学、天文学(英文版)
基金 sponsored by the National Natural Science Foundation of China (Grant No.10702071) the China Postdoctoral Science Foundation the Shanghai Postdoctoral Scientific Program (Grant No.10R21415800) the Shanghai Leading Academic Discipline Project (Grant No.B302)
关键词 ferroelectric ceramics domain switching electric field analytic function impermeable crack STRIP 开关模型 裂纹尖端 电场驱动 铁电陶瓷 不透水 双悬臂梁试样 半无限裂纹 边界值问题
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参考文献14

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同被引文献34

  • 1杨卫,王宏涛,崔元庆.Composite Eshelby model and domain band geometries of ferroelectric ceramics[J].Science China(Technological Sciences),2001,44(4):403-413. 被引量:2
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