%0 Journal Article
%K lead
%K film
%K crystal
%K silicon
%K imaging
%K crystal structure
%K Titanium dioxide
%K Article
%K priority journal
%K piezoelectricity
%K microelectromechanical system
%K imaging method
%K ultrasonics
%K echography
%K energy expenditure
%K mechanotransduction
%K microfluidics
%A S.H Baek
%A J Park
%A D.M Kim
%A V.A Aksyuk
%A R.R Das
%A S.D Bu
%A D.A Felker
%A J Lettieri
%A V Vaithyanathan
%A S.S.N Bharadwaja
%A N Bassiri-Gharb
%A Y.B Chen
%A H.P Sun
%A C.M Folkman
%A H.W Jang
%A D.J Kreft
%A S.K Streiffer
%A Ramamoorthy Ramesh
%A X.Q Pan
%A S Trolier-McKinstry
%A D.G Schlom
%A M.S Rzchowski
%A R.H Blick
%A C.B Eom
%B Science
%D 2011
%G eng
%I American Association for the Advancement of Science
%P 958-961
%R 10.1126/science.1207186
%T Giant piezoelectricity on Si for hyperactive MEMS
%V 334
%X {Microelectromechanical systems (MEMS) incorporating active piezoelectric layers offer integrated actuation, sensing, and transduction. The broad implementation of such active MEMS has long been constrained by the inability to integrate materials with giant piezoelectric response, such as Pb(Mg 1/3Nb2/3)O3-PbTiO3 (PMN-PT). We synthesized high-quality PMN-PT epitaxial thin films on vicinal (001) Si wafers with the use of an epitaxial (001) SrTiO3 template layer with superior piezoelectric coefficients (e31