Photonic Integrated Circuit Based Temperature Sensor for
Out-of-Autoclave Composite Parts Production Monitoring
Author:
Syriopoulos Georgios1ORCID, Poulopoulos Ioannis1, Zervos Charalampos1, Kyriazi Evrydiki1ORCID, Poulimenos Aggelos2, Szaj Michal3, Missinne Jeroen4ORCID, van Steenberge Geert4, Avramopoulos Hercules1
Affiliation:
1. Photonics Communications Research Laboratory, National Technical University of Athens, 9 Iroon Polytechniou Street, Zografou, 15773 Athens, Greece 2. Engineering Technology Solutions E.E., 15344 Athens, Greece 3. Argotech a.s., Holubova 978, CZ-547 01 Náchod, Czech Republic 4. Center for Microsystem Technology (CMST), Ghent University and IMEC, Technologiepark 126, 9052 Ghent, Belgium
Abstract
The use of composite materials has seen widespread adoption in modern aerospace industry. This has been facilitated due to their favourable mechanical characteristics, namely, low weight and high stiffness and strength. For broader implementation of those materials though, the out-of-autoclave production processes have to be optimized, to allow for higher reliability of the parts produced as well as cost reduction and improved production speed. This optimization can be achieved by monitoring and controlling resin filling and curing cycles. Photonic Integrated Circuits (PICs), and, in particular, Silicon Photonics, owing to their fast response, small size, ability to operate at higher temperatures, immunity to electromagnetic interference, and compatibility with CMOS fabrication techniques, can offer sensing solutions fulfilling the requirements for composite material production using carbon fibres. In this paper, we demonstrate a passive optical temperature sensor, based on a 220 nm height Silicon-on-Insulator platform, embedded in a composite tool used for producing RTM-6 composite parts of high quality (for use in the aerospace industry). The design methodology of the photonic circuit as well as the experimental results and comparison with the industry standard thermocouples during a thermal cycling of the tool are presented. The optical sensor exhibits high sensitivity (85 pm/°C), high linearity (R2 = 0.944), and is compatible with the RTM-6 production process, operating up to 180 °C.
Funder
European Union’s Horizon 2020 innovation program
Subject
Electrical and Electronic Engineering,Biochemistry,Instrumentation,Atomic and Molecular Physics, and Optics,Analytical Chemistry
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