Laser-assisted direct writing of thermoelectric generators
Laser-assisted direct writing of thermoelectric generators
We present a novel method for the fabrication of a thermoelectric generator using a rapid, lithography-less technique performed under ambient conditions and called laser-induced forward transfer (LIFT). LIFT is a laser-assisted method that has been employed for the transfer of materials such as metals, semiconductors, liquids and dielectrics. A part of a thin film (donor) previously coated onto a transparent carrier substrate is transferred onto a nearby receiver by the explosive expansion of a small part of the donor volume transformed on absorption of a laser pulse. Thereby donor and receiver do not necessarily need to match their lattice or thermal parameters. To demonstrate the capability of LIFT-printing, a thermoelectric generator consisting of staggered p- and n-type doped pads was fabricated by transferring layers of Bi2Te3 and Bi0.5Sb1.5Te3 consecutively onto a glass receiver pre-coated with a thin polydimethylsiloxane polymer film. For a single pair of the generator elements, the thermoelectric voltage per unit degree temperature difference was determined to be >90µV/K. The resistance of a thermoelectric leg pair was in the order of 10kΩ. The performance was compared to that of thermoelectric generators fabricated both with conventional methods and with devices fabricated with different designs using LIFT. The studies show that LIFT is a rapid and novel technique that can be employed for the fabrication of working thermoelectric generators on polymer substrate.
1-19
Feinäugle, M.
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Sones, C.L.
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Koukharenko, E.
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Eason, R.W.
e38684c3-d18c-41b9-a4aa-def67283b020
Feinäugle, M.
3b15dc5b-ff52-4232-9632-b1be238a750c
Sones, C.L.
9de9d8ee-d394-46a5-80b7-e341c0eed0a8
Koukharenko, E.
b34ae878-2776-4088-8880-5b2bd4f33ec3
Eason, R.W.
e38684c3-d18c-41b9-a4aa-def67283b020
Feinäugle, M., Sones, C.L., Koukharenko, E. and Eason, R.W.
(2013)
Laser-assisted direct writing of thermoelectric generators.
E-MRS '13 Materials Research Society Spring Meeting, , Strasbourg, France.
27 - 31 May 2013.
.
Record type:
Conference or Workshop Item
(Paper)
Abstract
We present a novel method for the fabrication of a thermoelectric generator using a rapid, lithography-less technique performed under ambient conditions and called laser-induced forward transfer (LIFT). LIFT is a laser-assisted method that has been employed for the transfer of materials such as metals, semiconductors, liquids and dielectrics. A part of a thin film (donor) previously coated onto a transparent carrier substrate is transferred onto a nearby receiver by the explosive expansion of a small part of the donor volume transformed on absorption of a laser pulse. Thereby donor and receiver do not necessarily need to match their lattice or thermal parameters. To demonstrate the capability of LIFT-printing, a thermoelectric generator consisting of staggered p- and n-type doped pads was fabricated by transferring layers of Bi2Te3 and Bi0.5Sb1.5Te3 consecutively onto a glass receiver pre-coated with a thin polydimethylsiloxane polymer film. For a single pair of the generator elements, the thermoelectric voltage per unit degree temperature difference was determined to be >90µV/K. The resistance of a thermoelectric leg pair was in the order of 10kΩ. The performance was compared to that of thermoelectric generators fabricated both with conventional methods and with devices fabricated with different designs using LIFT. The studies show that LIFT is a rapid and novel technique that can be employed for the fabrication of working thermoelectric generators on polymer substrate.
More information
e-pub ahead of print date: 2013
Venue - Dates:
E-MRS '13 Materials Research Society Spring Meeting, , Strasbourg, France, 2013-05-27 - 2013-05-31
Organisations:
Optoelectronics Research Centre
Identifiers
Local EPrints ID: 367793
URI: http://eprints.soton.ac.uk/id/eprint/367793
PURE UUID: 2c130ecb-88cd-4418-a5fd-fd4260063cd0
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Date deposited: 15 Sep 2014 09:08
Last modified: 15 Mar 2024 02:39
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Contributors
Author:
M. Feinäugle
Author:
C.L. Sones
Author:
E. Koukharenko
Author:
R.W. Eason
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