Contact Dr Glenn Leighton
- Tel: +44 (0) 1234 750111 x2724
- Email: firstname.lastname@example.org
- Linkedin: http://www.linkedin.com/profile/view?id=31884671&trk=nav_responsive_tab_profile
Areas of expertise
- Computing, Simulation & Modelling
- Manufacturing of Functional Materials
- Precision Engineering
- Sensor Technologies
- Structures and Materials
- Surface Engineering
- Ultraprecision & Nano-engineering
His background is as an electrical/mechanical engineer with experience in various engineering roles, including design engineering and fault diagnosis. He is used to being part of a team as well as taking the organisational responsibility of a team leader. He has a PhD and MSc from Cranfield Univesrity in MEMS and Nanotechnology, a BSc from the University of Hull in Integrated technology (encompassing electrical/mechanical and computer engineering), and a HND from Doncaster College in electronics and advanced computing.
Dr Leighton is currently working as a lecturer in functional surface engineering at Cranfield University in the field of materials science & manufacturing. He is active in teaching, course design and supervising students. The research he is currently undertaking is aimed at the development of new piezo actuator structures for next generation commercial inkjet for an industrial partner. He is also involved in the development of novel Nano-materials, Nano-manufacturing and the characterisation of functional materials.
Articles In Journals
- Jones PM, Lonne Q, Talaia P, Leighton GJT, Botte GG, Mutnuri S & Williams L (2018) A straightforward route to sensor selection for IoT systems, Research-Technology Management, 61 (5) 41-50.
- Leighton GJT, Jones PM, Lonne Q, Dorey RA & Giuliano F (2018) Innovative method to produce large-area freestanding functional ceramic foils, Journal of the European Ceramic Society, In press.
- Arrufat AV, Budziszewska M, Lopez C, Nguyen A, Sitek J, Jones P, Shaw C, Hayes I, Cairns G & Leighton G (2017) REACH compliant epoxides used in the synthesis of Fe (III)-based aerogel monoliths for target fabrication, High Power Laser Science and Engineering, 5 Article No. e24.
- Pardo L, Jimenez R, Garcia A, Brebol K, Leighton G & Huang Z (2010) Impedance measurements for determination of elastic and piezoelectric coefficients of films, Advances in Applied Ceramics, 109 (3) 156-161.
- Leighton GJT & Huang Z (2010) Accurate measurement of the piezoelectric coefficient of thin films by eliminating the substrate bending effect using spatial scanning laser vibrometry, Smart Materials and Structures, 19 (6).
- Pomeroy JW, Gkotsis P, Zhu M, Leighton GJT, Kirby PB & Kuball M (2008) Dynamic operational stress measurement of MEMS using time-resolved Raman spectroscopy, Journal of Microelectromechanical Systems, 17 (6) 1315-1321.
- Zhu M & Leighton G (2008) Dimensional reduction study of piezoelectric ceramics constitutive equations from 3-D to 2-D and 1-D, IEEE Transactions on Ultrasonics, Ferroelectrics and Frequency Control, 55 (11) 2377-2383.
- Leighton GJT, Kirby PB & Fox CHJ (2007) In-plane excitation of thin silicon cantilevers using piezoelectric thin films, Applied Physics Letters, 91 (18) 183510-1-183510-3.
- Huang Z, Leighton GJT, Wright RV, Duval F, Chung HC, Kirby PB & Whatmore RW (2007) Determination of piezoelectric coefficients and elastic constant of thin films by laser scanning vibrometry techniques, Sensors and Actuators A: Physical, 135 (2) 660-665.
- Huang Z, Zhang Q, Corkovic S, Dorey RA, Duval FFC, Leighton G, Wright RV, Kirby PB & Whatmore RW (2006) Piezoelectric PZT films for MEMS and their characterization by interferometry, Journal of Electroceramics, 17 (2-4) 549-556.
- Huang Z & Leighton G (2014) Interferometry for Piezoelectric Materials and Thin Films. In: Characterisation of Ferroelectric Bulk Materials and Thin Films. Cain MG (ed.), London: Springer, p. 87-113, ed. 1.
- Leighton GJT & Dorey RA (2012) Printed Actuators. In: Printed films: Materials Science and applications in sensors, electronics and Photonics.. Prudenziati M, Hormadaly J (ed.), Cambridge, p. 410-428.