INSA LYON - INL

HILIGHT

Nanostructures diélectriques à haut indice pour le contrôle de l’émission et de la propagation de la lumière
Coordinateur: 
CNRS - CEMES
Responsable INSA: 
BRUNO MASENELLI (INL)
Contrôler la lumière en régime quantique par des résonateurs diélectriques.

Le projet Hilight vise le développement de composants d’optique quantique intégrés sur silicium, de grande efficacité et de large bande spectrale (visible et IR) opérant à température ambiante. Ces composants sont conçus via des émetteurs quantiques couplés à des antennes diélectriques (nanostructures Si) afin d’assurer une exaltation de la luminescence, de son guidage, multiplexage et extraction (collecte et détection). La conception de source d’optique quantique brillante directement intégrée sur Si serait une percée technologique significative par rapport aux techniques concurrentes de report ou collage sur puce. Une telle amélioration aurait des impacts dans plusieurs domaines des technologies de l’information, telles que la mise à disposition de sources quantiques à bas coût intégrées dans les dispositifs télécom, des sources et optiques couplées et sub-longueur d’onde pour les lab-on-chip (dispositifs de capteurs miniaturisés sur puce pour le diagnostic) ou encore comme brique de base de la circuiterie de circuits optiques quantiques reconfigurables.

Partenaires: 
CEA - LETI
INSA TOULOUSE – LPCNO
CNRS – ICB
CNRS – LAAS
INSA LYON - INL
Financement: 
ANR
Dates projet: 
2020-01-01 00:00:00 - 2023-06-01 00:00:00
Montant global du projet: 
577015
Contact: 
bruno.masenelli@insa-lyon.fr

THESIS

Tags: 
CELLULE PHOTOVOLTAÏQUE
Three terminal tandem HEterojunction on interdigitated back contacts SIlicon Solar cell
Coordinateur: 
CENTRALE SUPELEC
Responsable INSA: 
Erwann FOURMOND

  Tandem solar cell with 3 contact

Enjeu: 
Environnement : Milieux naturels, Industriels et Urbains
Partenaires: 
CEA
INSA LYON - INL
EDF
Financement: 
ANR
Dates projet: 
2018-11-01 00:00:00 - 2022-04-01 00:00:00
Montant global du projet: 
667000

ROLLER

Resistive, unipolar and ordered ZnO nanowire arrays for flexible sensors adapted to biological media
Tags: 
ZNO NANOWIRES
FLEXIBLE SENSORS
BIOLOGICAL MEDIA
Coordinateur: 
INSA LYON - LGEF
Responsable INSA: 
Lionel PETIT (LGEF)

The overall objective of this project is based on the modeling, design, deposition, advanced characterization, and fabrication of resistive, unipolar, and ordered ZnO NW array/polymer composites for their integration into efficient flexible sensors adapted to biological media. These composites open the way for developing ex vivo and in vivo flexible sensors (pressure or flow sensors) especially suitable for medical health and monitoring applications.

Enjeu: 
Santé Globale et Bioingénierie
Partenaires: 
INSA LYON - INL
UNIVERSITE GRENOBLE ALPES
INP GRENOBLE
Financement: 
ANR
Dates projet: 
2018-03-01 00:00:00 - 2021-03-01 00:00:00
Montant global du projet: 
548800
Contact: 
lionel.petit@insa-lyon.fr

WASTCARD

Wrist and Arm Sensing Technologies for Cardiac Arrhythmias Detection in Long Term Monitoring
Tags: 
LONG-TERM WEARABLE SENSORS
ECG DENOISING TECHNIQUES
Coordinateur: 
UNIVERSITY OF ULSTER
Responsable INSA: 
Eric MCADAMS (INL)

Abnormal heart rhythms are a major cause of cardiovascular disease and death in Europe. Sudden cardiac death accounts for 50% of cardiac mortality in developed countries; ventricular tachycardia or ventricular fibrillation is the commonest underlying arrhythmia. In the ambulatory population, atrial fibrillation is the commonest one, and is associated with increased risk of stroke and heart failure, particularly in the aged population. If arrhythmias are detected at an early stage of heart disease, appropriate treatment can be effective, reducing disability and death. However, in the early stages of disease these may be transient, lasting only a few seconds, and thus difficult to detect. Current approaches to cardiac rhythm monitoring include: a) non-invasive external recording devices; which are suitable for short term (<24 hours) recording, and b) implantable loop recorders, which are inserted subcutaneously beneath the chest wall; capable of monitoring heart rhythm for extended periods, but there is considerable expense associated with the device, hospitalisation costs and risk of infection.

The proposed joint research project through staff exchange activities, will investigate enabling technologies for non-invasive recording heart rhythm during long periods of time (>36 hours), using a wrist or arm wearable device with novel ECG sensing techniques and embedded real-time cardiac arrhythmia detection processes. The problem of extracting

the far-field heart electrogram signal from noise components will be addressed using smart denoising algorithms.

The project will impact by establishing a successful international and intersectoral partnership for the development of new technologies addressing a significant cardiovascular healthcare problem. These technologies will be suitable for integration into current e-Health and cardiac information systems, and will impact on healthcare costs reduction by improved efficiency in the diagnosis and early treatment of cardiac disease.

https://sites.google.com/site/wastcardproject/

Enjeu: 
Santé Globale et Bioingénierie
Partenaires: 
INSA LYON - INL
INTELESENS
WATERFORD INSTITUTE OF TECHNOLOGY
SD INFORMATIKA
SOUTHERN HEALTH AND SOCIAL CARE TRUST
UNIVERSITY OF ZAGREB
Financement: 
COMMISSION EUROPEENE
Dates projet: 
2015-05-01 00:00:00 - 2018-04-01 00:00:00
Montant global du projet: 
324000
Contact: 
eric.mcadams@insa-lyon.fr

GREENSHIELD

Contrôle Robotisé sans Pesticides des Pestes de l'Agriculture
Coordinateur: 
INSA LYON - AMPERE
Responsable INSA: 
Arnaud LELEVE

Vers une agriculture plus saine

http://www.anr-greenshield.fr/

Enjeu: 
Santé Globale et Bioingénierie
Partenaires: 
Université de Bourgogne Femto
Green Shield Technology
INSA LYON - INL
INSA LYON - BF2I
Financement: 
ANR
Dates projet: 
2017-10-01 00:00:00 - 2021-03-01 00:00:00
Montant global du projet: 
558000
Contact: 
arnaud.leleve@insa-lyon.fr