1st Eucass Workshop on Advanced Aerospace Designs by Innovative Flow Control Technology
(Posponed and joined with EUCASS2021)
Call for abstracts
Procedure
The abstract must be submitted in PDF format at eucass-lille@univ-lille.fr before
January 15th 2019 a date to be defined .
The authors should use one of the following templates either in Latex or Word format. The abstract is limited to 4 pages and will not be published. A booklet of abstracts will be distributed to the participants.
For any question, please contact eucass-lille@univ-lille.fr.
List of Topics
Laminar Flow Control Technology
- Designs
- Gap managing
- Actuators (piezo-electric, magneto-mechanic, cross flow straighteners, microjets, …)
- Intelligent – Adaptive surfaces
Turbulent Flow Control Technology
- Materials – actively controlled porosity
- Actuators – (piezo-electric, magneto-mechanic, microjets,…)
- Intelligent – adaptive surfaces
- Combined actuator / sensor techniques
- Hybrid active riblet surface
- Plasma arrays
- Passive acoustic methods
Engines
- Laminar + turbulent flow (see above)
- Noise cancelling – active acoustic liners – MEMS
- Heat managing
- Boundary Layer Ingestion
- Distributed propulsion – cancelling shear flow effects
Control strategies
- Open or close loops
- Machine learning
Call for abstracts
Procedure
The abstract must be submitted in PDF format at eucass-lille@univ-lille.fr before
January 15th 2019 a date to be defined .
The authors should use one of the following templates either in Latex or Word format. The abstract is limited to 4 pages and will not be published. A booklet of abstracts will be distributed to the participants.
For any question, please contact eucass-lille@univ-lille.fr.
List of Topics
Laminar Flow Control Technology
- Designs
- Gap managing
- Actuators (piezo-electric, magneto-mechanic, cross flow straighteners, microjets, …)
- Intelligent – Adaptive surfaces
Turbulent Flow Control Technology
- Materials – actively controlled porosity
- Actuators – (piezo-electric, magneto-mechanic, microjets,…)
- Intelligent – adaptive surfaces
- Combined actuator / sensor techniques
- Hybrid active riblet surface
- Plasma arrays
- Passive acoustic methods
Engines
- Laminar + turbulent flow (see above)
- Noise cancelling – active acoustic liners – MEMS
- Heat managing
- Boundary Layer Ingestion
- Distributed propulsion – cancelling shear flow effects
Control strategies
- Open or close loops
- Machine learning