Luca Incarbone

Quick learner, good communicator, self-motivated, creative, able to work independently with a teamwork attitude. Ready for the next challenge.
Coding automotive embedded systems improve my skills in quality coding following the DO-178. Development driven by specifications and checked by specific tests. Novice on IEC62304 Experience in large scale production enlarge my skills in all related problematics (8 M pcs/year) Working with others teams on same projects , as mechanics, radio-frequency, qualification and certification, prove my interdisciplinary. Quick learner, good communicator, self-motivated, creative, able to work independently with a teamwork attitude. Interested in learning, I always found a solution to a given task, often learning new skills

Certifications

Software Development Process and Methodologies
Issuing authority :University of Minnesota See certificate

Object-Oriented Design
Issuing authority: University of Alberta See certificate

Agile Software Development
Issuing authority : University of MinnesotaSee certificate

Google Data Analytics Specialization
Issuing authority : Goolge See certificate

IEC 62304 - Medical Device software life cycle processes
Issuing authority : Key2Compliance

MISRA C
Issuing authority : LDRA Limited

Vector LIN/CAN
Issuing authority : Vector Informatik

Publications

2015


OMTDR Based Integrated Cable Health Monitoring System
Luca Incarbone, Samuel Evain, Wafa Ben Hassen, Fabrice Auzanneau, Antoine Dupret, Yannick Bonhomme, Freddy Morel, Romain Gabet, Ludovic Solange, Armando Zanchetta,
IEEE ICIEA 2015

Distributed Sensor Fusion for Wire Fault Location Using Sensor Clustering Strategy
Wafa Ben Hassen, Fabrice Auzanneau, Luca Incarbone, François Pérès and Ayeley Tchangani
International Journal of Distributed Sensor Networks

2014


Embedded Wire Diagnosis Sensor For Intermittent Fault Location
Luca Incarbone, Fabrice Auzanneau, Wafa Ben Hassen, Yannick Bonhomme
IEEE Sensors 2014

EMC impact of online embedded wire diagnosis
Luca Incarbone, Fabrice Auzanneau, Stéphane Martin
Conference: XXXI General Assembly of the International Union of Radio Science, At Beijing, China Download

Aircraft Electrical Wiring Monitoring System
Gilles Millet, Serge Bruillot, Didier Dejardin, Nicolas Imbert, Fabrice Auzanneau, Luca Incarbone, Marc Olivas, Loic Vincent, Alain Cremizi, Sylvain Poignant
Embedded Real Time Software and Systems, Toulouse

2013


Modelling Multi-Conductor Transmission Lines Using BLT Equation For Wire Diagnosis
Olivas M., Genoulaz J. and Incarbone L.
SAE Technical Paper 2013-01-2182, 2013

On-line diagnosis using Orthogonal Multi-Tone Time Domain Reflectometry in a lossy cable
Wafa Ben Hassen, Fabrice Auzanneau, Luca Incarbone
Systems, Signals & Devices (SSD), 2013

Method to compensate dispersion effect applied to time domain reflectometry
L. Sommervogel, L. El Sahmarany, L. Incarbone
Electronics Letters (Volume:49 , Issue: 18 )

OMTDR using BER estimation for ambiguities cancellation in ramified networks diagnosis
Wafa Ben Hassen, Fabrice Auzanneau, Luca Incarbone, François Péres, Ayeley P Tchangani
IEEE ISSNIP 2013 Download

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2010


Optical sensing using silicon nanocrystals
Luca Incarbone
Abstract: Since silicon-nanocrystals were discovered, their particular properties are under study. Thanks to quantum confinement, silicon nanostructures can exhibit high conversion efficiency compared with Si-bulk. Recent studies have shown the possibility of using silicon nano-crystals in MOS (metal-oxide-semiconductor) or MIS (metal-insulator-semiconductor) structures for photodetection and photovoltaic purposes. In this work we report spectral photocurrent of a MOS structure with silicon nano-crystals inside the oxide. The substrate used is made by CEA-LETI, silicon wafer with deposition of thin film of SiOx and thicker poly-silicon film. Silicon nano-crystals are formed by precipitation in the non-stoichiometric oxide(SiOx ). We report the method used to implement this. An analysis of the technique to make the test sample to evaluate optic-electric properties is followed by the presentation of the measurements made, and related considerations. We use two types of electric contact, some samples with a layer of ITO (Indium tin oxide) and others with semitransparent Chrome contact. The dimension of the structures is 100 × 100 µm² for optic-electric tests and 50nm diameter for AFM (atomic force measure) tests (not reported here). Photocurrent spectra show different behaviours at forward and reverse biases. In case of forward biases, the photocurrent is weak (no peak appears). However, at reverse biases, a peak appears at 1.8 ~ 1.9eV (~ 650nm red light). Considering all the measurements reported and the results of other research works in photo-luminescence spectra, we suppose that the energy found corresponds to the band gap of Si-ncs.
University of Sherbrooke (Canada) Download

2009


Visible-range photocurrent of silicon nanocrystals in a MOS structure
Lino Eugene, Abdelkader Souifi, Luca Incarbone, Manel Troudi, Vincent Aimez, Dominique Drouin
Nano and Giga Challenges in Electronics 2009

Contact

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