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Project Information

ID:

Start date

01-07-2009

End date

30-06-2014


Institutional Coordinator
Polytechnic University of Madrid

Financing

164 774,00 Euros
(Total amount or amount awarded)

More information in

Scope

Internacional no UE

Country

Belgium; Italy; Spain; United Kingdom

Analysis of institutional authors

Corral Garcia, RoquePrincipal investigator

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March 16, 2021
R&D Projects
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Competitive project
No

Engine Representative Internal Cooling Knowledge and Applications

Researchers:

CORRAL GARCIA, ROQUE (Investigador principal (IP))
[+]

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CENTRE DE RECHERCHE EN AERONAUTIQUE ASBL - CENAERO - Participant
CFS - Cambridge Flow Solutions - Participant
EST - EnginSoft S.P.A. - Participant
GE AVIO SRL - Participant
INDUSTRIA DE TURBO PROPULSORES SA - Participant
INSTYTUT MASZYN PRZEPLYWOWYCH IM ROBERTA SZEWALSKIEGO POLSKIEJ AKADEMII NAUK - IMP PAN - Participant
MTU Aero Engines - Participant
MTU AERO ENGINES AG - Participant
MTU AERO ENGINES GMBH - Participant
NUME - Numerical Mechanics Application International - Participant
Office National d Etudes et de Recherches Aerospatiales - Participant
Polish Academy of Science - IMP PAN - Participant
ROLLS-ROYCE DEUTSCHLAND LTD & CO KG - Participant
SAFRAN AIRCRAFT ENGINES - Participant
Snecma Propulsion Solide - Participant
Universidad Politécnica de Madrid - Participant
Università degli Studi di Firenze - Participant
UNIVERSITAET STUTTGART - Participant
University of Oxford - Participant
See more

Quality index

Call

FP7

Financer

Comisión Europea

Institutional Coordinator

Si

Most relevant results

The goal of ERICKA is to directly contribute to reductions in aircraft engine fuel consumption with a targeted contribution of 1% reduction in SFC relative to engines currently in service. The fuel efficiency of a jet engine used for aircraft propulsion is dependent on the performance of many key engine components. One of the most important is the turbine whose efficiency has a large influence on the engine fuel consumption and hence its CO2 emissions. The turbine must operate with high efficiency in the most hostile environment in the engine. The design of turbine cooling systems remains one of the most challenging processes in engine development. Modern high-pressure turbine cooling systems invariably combine internal convection cooling with external film cooling in complex flow systems whose individual features interact in complex ways. The heat transfer and cooling processes active are at the limit of current understanding and engine designers rely heavily on empirical tools and engineering judgement to produce new designs. ERICKA will provide a means of improving turbine blade cooling technology that will reduce turbine blade cooling mass-flow relative to that required using existing technology. A reduction in cooling mass-flow leads directly to improved component and engine efficiency. The improved technology for turbine cooling developed by ERICKA will also enable low NOx combustion chambers to be included in future engines. ERICKA will undertake research to furnish better understanding of the complex flows used to internally cool rotating turbine blades. This will be achieved by: 1) Acquisition of high quality experimental data using static and rotating test facilities 2) Development of cooling design capability by enhancement of computer codes that will exploit these experimental data ERICKA groups 18 partners representing the European aero engine industry, five SMEs and a set of leading academic institutions.