Creating 3D Objects with Integrated Electronics via Multiphoton Fabrication In Vitro and In Vivo

Author:

Baldock Sara J.1,Kevin Punarja1,Harper Garry R.1,Griffin Rebecca12,Genedy Hussein H.1,Fong M. James1,Zhao Zhiyi3,Zhang Zijian3,Shen Yaochun3,Lin Hungyen4,Au Catherine2,Martin Jack R.2,Ashton Mark D.1,Haskew Mathew J.1,Stewart Beverly5,Efremova Olga6,Esfahani Reza N.7,Emsley Hedley C. A.89,Appleby John B.9,Cheneler David410,Cummings Damian M.11,Benedetto Alexandre212,Hardy John G.110ORCID

Affiliation:

1. Department of Chemistry Lancaster University John Creed Avenue Lancaster LA1 4YB UK

2. Division of Biomedical and Life Sciences Lancaster University Tower Avenue Lancaster LA1 4YQ UK

3. Department of Electrical Engineering and Electronics University of Liverpool Liverpool L69 3GJ UK

4. School of Engineering Lancaster University Gillow Avenue Lancaster LA1 4YW UK

5. School of Chemistry and Biosciences University of Bradford Bradford BD7 1DP UK

6. NeuDrive Ltd. Daresbury Laboratory Sci‐Tech Keckwick Lane, Daresbury Warrington WA4 4AD UK

7. The Manufacturing Technology Centre Ansty Business Park Coventry CV7 9JU UK

8. Lancashire Teaching Hospitals NHS Trust Royal Preston Hospital Sharoe Green Lane Preston PR2 9HT UK

9. Lancaster Medical School Health Innovation One Sir John Fisher Drive Lancaster University Lancaster LA1 4AT UK

10. Materials Science Institute Lancaster University Lancaster LA1 4YW UK

11. Department of Neuroscience Physiology and Pharmacology University College London London WC1E 6BT UK

12. Centre for Ageing Research Lancaster University Lancaster LA1 4YQ UK

Abstract

Abstract3D objects with integrated electronics are produced using an additive manufacturing approach relying on multiphoton fabrication (direct laser writing, (DLW)). Conducting polymer‐based structures (with micrometer‐millimeter scale features) are printed within exemplar matrices, including an elastomer (polydimethylsiloxane, (PDMS)) have been widely investigated for biomedical applications. The fidelity of the printing process in PDMS is assessed by optical coherence tomography, and the conducting polymer structures are demonstrated to be capable of stimulating mouse brain tissue in vitro. Furthermore, the applicability of the approach to printing structures in vivo is demonstrated in live nematodes (Caenorhabditis elegans). These results highlight the potential for such additive manufacturing approaches to produce next‐generation advanced material technologies, notably integrated electronics for technical and medical applications (e.g., human‐computer interfaces).

Funder

Biotechnology and Biological Sciences Research Council

Defence Science and Technology Laboratory

Wellcome Trust

Medical Research Council

Mental Health Research UK

Engineering and Physical Sciences Research Council

Publisher

Wiley

Subject

Industrial and Manufacturing Engineering,Mechanics of Materials,General Materials Science

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