Summary
The proposed project addresses the topic “Optimised cockpit windshield for large diameter business aircraft”. The main objectives are i) to optimise the design of aircraft windshield and surrounding structure in terms of technical performances (low weight, high capacity to bear loads, reduced noise) and operational performances (low recurring costs, easy maintainability) and ii) to optimise heating power consumption for anti-icing.
Other objectives are:
- To develop models to support windshield design and to analyse power consumption for anti-icing and defogging;
- To propose five concepts based on different assembly techniques and transparencies;
- To support certification with heating power density lower than the currently used value of 70 W/dm2;
- To develop a front aircraft demonstrator and to validate the selected concept;- To assess environmental impact of the proposed technologies; - To set the ground for future exploitation of the project results.
The project starts with the definition of specifications and a review of latest emerging technologies to propose five improved window concepts. Models and simulation capabilities will be developed and validated for the optimisation of the heating power stream.
A trade-off solutions between the five concepts will be proposed.
A full scale front aircraft demonstrator will be developed to assess the performances of the selected optimised solution and its compliance.
Two partners will collaborate in the project: Company Saint-Gobain Sully, a long-time supplier of transparencies in the aerospace market and University Savoie Mont-Blanc through two research laboratories specialised in modelling.
Other objectives are:
- To develop models to support windshield design and to analyse power consumption for anti-icing and defogging;
- To propose five concepts based on different assembly techniques and transparencies;
- To support certification with heating power density lower than the currently used value of 70 W/dm2;
- To develop a front aircraft demonstrator and to validate the selected concept;- To assess environmental impact of the proposed technologies; - To set the ground for future exploitation of the project results.
The project starts with the definition of specifications and a review of latest emerging technologies to propose five improved window concepts. Models and simulation capabilities will be developed and validated for the optimisation of the heating power stream.
A trade-off solutions between the five concepts will be proposed.
A full scale front aircraft demonstrator will be developed to assess the performances of the selected optimised solution and its compliance.
Two partners will collaborate in the project: Company Saint-Gobain Sully, a long-time supplier of transparencies in the aerospace market and University Savoie Mont-Blanc through two research laboratories specialised in modelling.
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More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/785300 |
| Start date: | 01-03-2018 |
| End date: | 30-04-2023 |
| Total budget - Public funding: | 1 315 162,00 Euro - 965 388,00 Euro |
Cordis data
Original description
The proposed project addresses the topic “Optimised cockpit windshield for large diameter business aircraft”. The main objectives are i) to optimise the design of aircraft windshield and surrounding structure in terms of technical performances (low weight, high capacity to bear loads, reduced noise) and operational performances (low recurring costs, easy maintainability) and ii) to optimise heating power consumption for anti-icing.Other objectives are:
- To develop models to support windshield design and to analyse power consumption for anti-icing and defogging;
- To propose five concepts based on different assembly techniques and transparencies;
- To support certification with heating power density lower than the currently used value of 70 W/dm2;
- To develop a front aircraft demonstrator and to validate the selected concept;- To assess environmental impact of the proposed technologies; - To set the ground for future exploitation of the project results.
The project starts with the definition of specifications and a review of latest emerging technologies to propose five improved window concepts. Models and simulation capabilities will be developed and validated for the optimisation of the heating power stream.
A trade-off solutions between the five concepts will be proposed.
A full scale front aircraft demonstrator will be developed to assess the performances of the selected optimised solution and its compliance.
Two partners will collaborate in the project: Company Saint-Gobain Sully, a long-time supplier of transparencies in the aerospace market and University Savoie Mont-Blanc through two research laboratories specialised in modelling.
Status
CLOSEDCall topic
JTI-CS2-2017-CFP06-AIR-01-28Update Date
26-10-2022
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