Presentation 1999/7/9
Theoretical Analysis of SAW Propagation Characteristics under the Strained Medium and Applications for High Temperature stable High Coupling SAW Substrates
K. Yamanouchi, K. Kotani, H. Odagawa, Y. Cho,
PDF Download Page PDF download Page Link
Abstract(in Japanese) (See Japanese page)
Abstract(in English) In this paper,SAW bonded composite substrates with a large k^2, small TCF, low propagation loss and no dispersion using conventional bonders are investigated theoretically and experimentally. The propagation characteristics of SAW in the strained piezoelectric crystal using the higher-order elasticity theory have been analyzed. The theoretical results show zero TCF on LiNbO_3/SiO_2 substrates. At room temperature a relatively thin LiNbO_3 is firmly bonded to a glass material with a small thermal expansion coefficient by using ultra-violet rays stiffen bonder. The experimental results of LiNbO_3/glass substrate showed TCF of 19ppm/℃. The propagation propertis were almost the same as those of the single crystal.
Keyword(in Japanese) (See Japanese page)
Keyword(in English) Surface Acoustic Wave / Temperature Stable Substrate / Composit Substrate / SAW propagation / Static Strain Materials
Paper # OME99-48
Date of Issue

Conference Information
Committee OME
Conference Date 1999/7/9(1days)
Place (in Japanese) (See Japanese page)
Place (in English)
Topics (in Japanese) (See Japanese page)
Topics (in English)
Chair
Vice Chair
Secretary
Assistant

Paper Information
Registration To Organic Material Electronics (OME)
Language JPN
Title (in Japanese) (See Japanese page)
Sub Title (in Japanese) (See Japanese page)
Title (in English) Theoretical Analysis of SAW Propagation Characteristics under the Strained Medium and Applications for High Temperature stable High Coupling SAW Substrates
Sub Title (in English)
Keyword(1) Surface Acoustic Wave
Keyword(2) Temperature Stable Substrate
Keyword(3) Composit Substrate
Keyword(4) SAW propagation
Keyword(5) Static Strain Materials
1st Author's Name K. Yamanouchi
1st Author's Affiliation Tohoku Institute of Technology, Sendai, Japan()
2nd Author's Name K. Kotani
2nd Author's Affiliation Research Institute of Electrical Communication,Tohoku University, Sendai, Japan
3rd Author's Name H. Odagawa
3rd Author's Affiliation Research Institute of Electrical Communication,Tohoku University, Sendai, Japan
4th Author's Name Y. Cho
4th Author's Affiliation Research Institute of Electrical Communication,Tohoku University, Sendai, Japan
Date 1999/7/9
Paper # OME99-48
Volume (vol) vol.99
Number (no) 170
Page pp.pp.-
#Pages 6
Date of Issue