4.8 Review

Advances in piezoelectric thin films for acoustic biosensors, acoustofluidics and lab-on-chip applications

Journal

PROGRESS IN MATERIALS SCIENCE
Volume 89, Issue -, Pages 31-91

Publisher

PERGAMON-ELSEVIER SCIENCE LTD
DOI: 10.1016/j.pmatsci.2017.04.006

Keywords

Piezoelectric; Thin film; Acoustic wave; Biosensor; Microfluidics; Acoustofluidics; Lab-on-chip; ZnO; AlN

Funding

  1. Innovative electronic Manufacturing Research Centre (IeMRC) through EPSRC [FS/01/02/10]
  2. Knowledge Transfer Partnership [KTP010548]
  3. EPSRC [EP/L026899/1, EP/F063865/1, EP/F06294X/1, EP/P018998/1]
  4. Royal Society-Research Grant [RG090609]
  5. Newton Mobility Grant through Royal Society [IE161019]
  6. NFSC
  7. Scottish Sensing Systems Centre (S3C)
  8. Royal Society of Edinburgh
  9. Carnegie Trust
  10. Royal Academy of Engineering-Research Exchange, China
  11. Royal Academy of Engineering-Research Exchange, India
  12. UK Fluidic Network and Special Interest Group-Acoustofluidics
  13. EPSRC Engineering Instrument Pool
  14. National Natural Science Foundation of China [61274037, 51302173, 61178018, 11304209]
  15. Zhejiang Province Natural Science Fund [Z11101168]
  16. Fundamental Research Funds for the Central Universities [2014QNA5002]
  17. NSAF Joint Foundation of China [U1630126, U1230124, U1330103]
  18. Ph.D. Funding Support Program of Education Ministry of China [20110185110007]
  19. Australian Research Council [LP150100153]
  20. European Commission [HEALTH-304814]
  21. COST Action [IC1208]
  22. Ministerio de Economia y Competitividad del Gobierno de Espana [MAT2010-18933, MAT2013-45957R]
  23. [EP/D03826X/1]
  24. [EP/ C536630/1]
  25. [GR/T24524/01]
  26. [GR/S30573/01]
  27. [GR/R36718/01]
  28. [GR/L82090/01]
  29. [BBSRC/E11140]
  30. Engineering and Physical Sciences Research Council [EP/C536630/1, EP/P018998/1, EP/D03826X/1] Funding Source: researchfish
  31. EPSRC [EP/P018998/1, EP/D03826X/1, EP/F063865/1] Funding Source: UKRI

Ask authors/readers for more resources

Recently, piezoelectric thin films including zinc oxide (ZnO) and aluminium nitride (AlN) have found a broad range of lab-on-chip applications such as biosensing, particle/cell concentrating, sorting/patterning, pumping, mixing, nebulisation and jetting. Integrated acoustic wave sensing/microfluidic devices have been fabricated by depositing these piezoelectric films onto a number of substrates such as silicon, ceramics, diamond, quartz, glass, and more recently also polymer, metallic foils and bendable glass/silicon for making flexible devices. Such thin film acoustic wave devices have great potential for implementing integrated, disposable, or bendable/flexible lab-on-a-chip devices into various sensing and actuating applications. This paper discusses the recent development in engineering high performance piezoelectric thin films, and highlights the critical issues such as film deposition, MEMS processing techniques, control of deposition/processing parametres, film texture, doping, dispersion effects, film stress, multilayer design, electrode materials/designs and substrate selections. Finally, advances in using thin film devices for lab-on chip applications are summarised and future development trends are identified. (C) 2017 The Author(s). Published by Elsevier Ltd. This is an open access article under the CC BY-NC-ND license (http://creativecommons.org/licensesiby-nc-nd/4.0/).

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