CONSORTIUM EU HORIZON 2020 AVIATION RESEARCH PROJECT 9 PARTNERS FROM 6 EUROPEAN COUNTRIES COORDINATED BY BAUHAUS LUFTFAHRT E.V.

Similar documents
Dave Bone. DREAM Project Coordinator

Concept study Propulsive Fuselage

Engine Industry Management Group EIMG. The European Aero-engine Community. Riga, 20 April 2005

CONCEPT VALIDATION STUDY FOR FUSELAGE WAKE- FILLING PROPULSION INTEGRATION

Emissions Mitigation Concepts

Electrification of Vehicles in the Transportation Class

Aero Engine Round Table, 30 May

Clean Sky Programme. JTI Workshop, Vienna 3 rd of February, Helmut Schwarze, Project Officer CSJU Andrzej Podsadowski, Project Officer CSJU

Adaptive and Passive Flow Control for Fan Broadband Noise Reduction Selected final results

Environmentally friendly aero-engines for the 21st century Dr. Norbert Arndt, Managing Director Engineering Rolls-Royce Deutschland

Annual Report Summary Green Regional Aircraft (GRA) The Green Regional Aircraft ITD

ENGINE Demonstration Programmes in Clean Sky & Clean Sky 2

w w w. o n e r a. f r

Innovation Takes Off

Dave Bone. DREAM Project Coordinator

COMPARATIVE EFFICIENCY ANALYSIS OF DISTRIBUTED PROPULSION SYSTEMS FOR PROPULSIVE FUSELAGE AND HYBRID WING BODY CONCEPTS IN FP7 PROJECT DISPURSAL

65 Buckingham Gate London SW1E 6AT. United Kingdom. EADS EADS Innovation Works UK Filton, Bristol BS99 7AR. United Kingdom

Clean Sky Challenges and perspectives

Corso di Motori Aeronautici

Project Periodic Report. -Publishable Summary-

Environmental issues for a supersonic business jet

Innovation Takes Off

RACER. Austrian Aviation Technology Days - Linz. October 4th 2017

MSFI TECHNOLOGY AT SAFRAN AIRCRAFT

Advanced Filtration TEchnologies for the Recovery and Later conversion of relevant Fractions from wastewater

Innovation Takes Off. Not legally binding

New Aero Engine Core Concepts

Clean Sky 2. LifeCraft Demonstrationt (IADP RC 2 & ITDs) Consultation meetings Brussels th December 2012 OUTLINE

EFFICIENT URBAN LIGHT VEHICLES.

TOWARD ACARE 2020: INNOVATIVE ENGINE ARCHITECTURES TO ACHIEVE THE ENVIRONMENTAL GOALS?

VoltAir All-electric Transport Concept Platform

E-Aircraft System Programme

The Research Framework Programmes of Europe

Large Passenger Aircraft IADP

LEAP-X Program Update

La Propulsione nei futuri sistemi di trasporto aerospaziale. Raffaele Savino Università di Napoli Federico II

Propeller Blade Bearings for Aircraft Open Rotor Engine

blended wing body aircraft for the

TOWARD ACARE 2020: INNOVATIVE ENGINE ARCHITECTURES TO ACHIEVE THE ENVIRONMENTAL GOALS?

ENvironmentally Friendly Inter City Aircraft powered by Fuel Cells (ENFICA-FC).

CRAHVI. CRashworthiness of Aircraft for High Velocity Impact. Tim Brown (Airbus UK) Aeronautics Days 19th - 21st June, 2006

NASA centers team up to tackle sonic boom 18 March 2014, by Frank Jennings, Jr.

Impact of Technology on Fuel Efficiency

The European Tilt Rotor-Status of ERICA Design and Test Activities. Madrid, 31 March 2011

Clean Sky at a Glance. SUNJET II - Clean Sky at Le Bourget 21 June, 2017, Paris

ERA's Open Rotor Studies Including Shielding For Noise Reduction Environmentally Responsible Aviation Project

1 CEAS 2015 Paper number: 44

AIRCRAFT AND TECHNOLOGY CONCEPTS FOR AN N+3 SUBSONIC TRANSPORT. Elena de la Rosa Blanco May 27, 2010

Future Trends in Aeropropulsion Gas Turbines

Technical Challenges and Barriers Affecting Turbo-electric and Hybrid Electric Aircraft Propulsion

SUNJET II Forum. Giuseppe Pagnano CLEAN SKY JU Coordinating Project Officer / CTO

Technological Achievements

Clean Sky 2 General Information Day 21 November 2013, Brussels

UNCLASSIFIED FY 2017 OCO. FY 2017 Base

SPARTAN. Date: All rights reserved 2011, Thales Alenia Space. Business Unit Space Infrastructures & Transportation

RECENT ADVANCES IN AIRFRAME-PROPULSION CONCEPTS WITH DISTRIBUTED PROPULSION

ENABLING COST OPTIMIZED HYBRID POWERTRAINS

Methodology for Distributed Electric Propulsion Aircraft Control Development with Simulation and Flight Demonstration

What does the future bring?

Aerodynamic Testing of the A400M at ARA. Ian Burns and Bryan Millard

Z-Damper Z-Coupled Full System for Attenuation of Vibrations

neuron An efficient European cooperation scheme

HORIZON 2020 The European Union's programme for Research and Innovation Open to the world!

Jay Gundlach AIAA EDUCATION SERIES. Manassas, Virginia. Joseph A. Schetz, Editor-in-Chief. Blacksburg, Virginia. Aurora Flight Sciences

Engines for Green Aviation s Future

The Engagement of a modern wind tunnel in the design loop of a new aircraft Jürgen Quest, Chief Aerodynamicist & External Project Manager (retired)

AST3-CT HeliSafe TA. Helicopter Occupant Safety Technology Application. Publishable Final Activity Report

H2020 (ART ) CARTRE SCOUT

A sucessful LEIT project. Smart Systems Integration, , Copenhagen Rainer Günzler, HSG-IMIT, Villingen-Schwenningen, Germany

DESIGN OF ACTIVE FLOW CONTROL AT THE WING/PYLON/ENGINE JUNCTION

Whole Engine Integration

aircraft Concepts w.r.t. wing Abstract the airframe. Beside particularly Geared Turbo Fan quantificatio Appropriate axisymmetri to Specific Air Range

LOw POllutant COmbustor TEchnology Project

Clean Sky 2 Information Day dedicated to the 8 th Call for Proposal (CfP08) Leonardo Helicopters

We are IntechOpen, the world s leading publisher of Open Access books Built by scientists, for scientists. International authors and editors

Clean Sky at a Glance: Insight into case studies. Clean Sky at Le Bourget 19 June 2017, Paris

Clean Sky Smart Fixed Wing Aircraft ITD

REsearch on a CRuiser Enabled Air Transport Environment (RECREATE)

Development of a Variable Stability, Modular UAV Airframe for Local Research Purposes

Hybrid Electric Propulsion

The HERCULES ( ) R&D program on 'green' engines for ships

Designing cooperative interaction of automated vehicles with other road users

HERCULES-2 Project. Deliverable: D8.8

Opportunities and Challenges of Electric Aircraft Propulsion Tagung Energiesysteme - Elektromobilität Dr.-Ing. Claus Müller - Brugg,

The Effects of Damage and Uncertainty on the Aeroelastic / Aeroservoelastic Behavior and Safety of Composite Aircraft. JAMS Meeting, May

Flow Controlled Core Overview

PERM injection system Development. PERM injection system Validation

NEWAC Overall Specification, Assessment and Concept Optimization

CORE. Chris Such, Ricardo

elektronik Designing vehicle power nets A single simulation tool from initial requirements to series production

HARAS High Availability Redundant Actuation Systems

Industrial Use of EsDs ETP4HPC Workshop 22 June 2017 Frankfurt DLR CFD Solver TAU & Flucs for external Aerodynamic

MARANDA Marine application of a new fuel cell powertrain validated in demanding arctic conditions

AIRFRAME ITD Call for Proposals #6

Clean Sky SAGE ITD. NEWAC Workshop Warsaw 3 June 2009 Mark Pacey

Optimizing Propulsive Efficiency in Aircraft with Boundary Layer Ingesting Distributed Propulsion

37 partners 13 countries - 4 years - 26 M

TAKE OFF Informationsveranstaltung zu Ausschreibungen nationaler und europäischer Luftfahrtforschungsprogramme Clean Sky

Light Helicopter Demonstrator with HCE (High Compression Engine) Alexandre Gierczynski London, October 20 th, 2015

CS2 Fast Rotorcraft NGCTR Objectives

Transcription:

PROJECT COORDINATOR PROJECT OFFICE Bauhaus Luftfahrt e.v. Dr. Arne Seitz Willy-Messerschmitt-Str. 1 82024 Taufkirchen centreline-coordinator@eurtd.com ARTTIC Dr. Martin Dietz, Sophie Rau Oskar-von-Miller-Ring 29 80333 Munich centreline-arttic@eurtd.com ConcEpt validation study for fuselage wake-filling propulsion integration Research Industry University SME CONSORTIUM @CENTRELINE_EU EU HORIZON 2020 AVIATION RESEARCH PROJECT CENTRELINE PROJECT 9 PARTNERS FROM 6 EUROPEAN COUNTRIES WWW.CENTRELINE.EU COORDINATED BY BAUHAUS LUFTFAHRT E.V. DURATION JUNE 2017 MAY 2020 This project has received funding from the European Union s Horizon 2020 research and innovation programme under grant agreement No. 723242

CENTRELINE s target is to mature the technological key features of the Propulsive Fuselage Concept to TRL 3-4. The core of the research is formed by two experimental test campaigns supported by comprehensive numerical simulation and integrated multidisciplinary design optimisation techniques addressing the turbo-electric powertrain and the overall aircraft. The test campaigns include wind tunnel testing of the overall configuration through a modular scale-model as well as aerodynamic rig testing for the boundary layer ingesting fuselage fan. Fuselage wake-filling propulsion system Under-wing podded geared turbofan Planetary gear system Fuselage Fan S-Duct Gas turbine engine FP7 DisPURSAL (mechanically driven fuselage wake-filling) Paradigm shift THE CENTRELINE PROJECT MISSION Wind tunnel TU Delft The CENTRELINE project aims at maximising the benefits of aft-fuselage wake-filling under realistic systems design and operating conditions. CENTRELINE performs the proof of concept and initial experimental validation for a highly promising propulsion-airframe integration approach, the Propulsive Fuselage Concept. The concept realises fuselage wake-filling through a turbo-electrically powered fan, installed at the fuselage aft-end with the purpose to entrain and re-energise the fuselage boundary layer flow. Currently at Technology Readiness Level (TRL) 1-2, HIGH-LEVEL OBJECTIVES AT AIRCRAFT LEVEL Artist view rendering of Propulsive Fuselage Concept Bauhaus Luftfahrt e.v. H2020 CENTRELINE (turbo-electrically driven fuselage wake-filling) 11% CO₂ reduction vs. an advanced conventional reference aircraft equipped with aerodynamic, structural, power plant and systems technologies suitable for a potential Entry Into Service (EIS) year 2035 ( 40% CO₂ vs. Y2000 SRIA reference) Electric power transmission Generator off takes from advanced GTF Electrically driven fuselage propulsor 11% reduction of NOx emissions vs. Y2035 reference aircraft ( 84% NOx vs. Y2000 SRIA reference)

CENTRELINE s target is to mature the technological key features of the Propulsive Fuselage Concept to TRL 3-4. The core of the research is formed by two experimental test campaigns supported by comprehensive numerical simulation and integrated multidisciplinary design optimisation techniques addressing the turbo-electric powertrain and the overall aircraft. The test campaigns include wind tunnel testing of the overall configuration through a modular scale-model as well as aerodynamic rig testing for the boundary layer ingesting fuselage fan. Fuselage wake-filling propulsion system Under-wing podded geared turbofan Planetary gear system Fuselage Fan S-Duct Gas turbine engine FP7 DisPURSAL (mechanically driven fuselage wake-filling) Paradigm shift THE CENTRELINE PROJECT MISSION Wind tunnel TU Delft The CENTRELINE project aims at maximising the benefits of aft-fuselage wake-filling under realistic systems design and operating conditions. CENTRELINE performs the proof of concept and initial experimental validation for a highly promising propulsion-airframe integration approach, the Propulsive Fuselage Concept. The concept realises fuselage wake-filling through a turbo-electrically powered fan, installed at the fuselage aft-end with the purpose to entrain and re-energise the fuselage boundary layer flow. Currently at Technology Readiness Level (TRL) 1-2, HIGH-LEVEL OBJECTIVES AT AIRCRAFT LEVEL Artist view rendering of Propulsive Fuselage Concept Bauhaus Luftfahrt e.v. H2020 CENTRELINE (turbo-electrically driven fuselage wake-filling) 11% CO₂ reduction vs. an advanced conventional reference aircraft equipped with aerodynamic, structural, power plant and systems technologies suitable for a potential Entry Into Service (EIS) year 2035 ( 40% CO₂ vs. Y2000 SRIA reference) Electric power transmission Generator off takes from advanced GTF Electrically driven fuselage propulsor 11% reduction of NOx emissions vs. Y2035 reference aircraft ( 84% NOx vs. Y2000 SRIA reference)

CENTRELINE s target is to mature the technological key features of the Propulsive Fuselage Concept to TRL 3-4. The core of the research is formed by two experimental test campaigns supported by comprehensive numerical simulation and integrated multidisciplinary design optimisation techniques addressing the turbo-electric powertrain and the overall aircraft. The test campaigns include wind tunnel testing of the overall configuration through a modular scale-model as well as aerodynamic rig testing for the boundary layer ingesting fuselage fan. Fuselage wake-filling propulsion system Under-wing podded geared turbofan Planetary gear system Fuselage Fan S-Duct Gas turbine engine FP7 DisPURSAL (mechanically driven fuselage wake-filling) Paradigm shift THE CENTRELINE PROJECT MISSION Wind tunnel TU Delft The CENTRELINE project aims at maximising the benefits of aft-fuselage wake-filling under realistic systems design and operating conditions. CENTRELINE performs the proof of concept and initial experimental validation for a highly promising propulsion-airframe integration approach, the Propulsive Fuselage Concept. The concept realises fuselage wake-filling through a turbo-electrically powered fan, installed at the fuselage aft-end with the purpose to entrain and re-energise the fuselage boundary layer flow. Currently at Technology Readiness Level (TRL) 1-2, HIGH-LEVEL OBJECTIVES AT AIRCRAFT LEVEL Artist view rendering of Propulsive Fuselage Concept Bauhaus Luftfahrt e.v. H2020 CENTRELINE (turbo-electrically driven fuselage wake-filling) 11% CO₂ reduction vs. an advanced conventional reference aircraft equipped with aerodynamic, structural, power plant and systems technologies suitable for a potential Entry Into Service (EIS) year 2035 ( 40% CO₂ vs. Y2000 SRIA reference) Electric power transmission Generator off takes from advanced GTF Electrically driven fuselage propulsor 11% reduction of NOx emissions vs. Y2035 reference aircraft ( 84% NOx vs. Y2000 SRIA reference)

PROJECT COORDINATOR PROJECT OFFICE Bauhaus Luftfahrt e.v. Dr. Arne Seitz Willy-Messerschmitt-Str. 1 82024 Taufkirchen centreline-coordinator@eurtd.com ARTTIC Dr. Martin Dietz, Sophie Rau Oskar-von-Miller-Ring 29 80333 Munich centreline-arttic@eurtd.com ConcEpt validation study for fuselage wake-filling propulsion integration Research Industry University SME CONSORTIUM @CENTRELINE_EU EU HORIZON 2020 AVIATION RESEARCH PROJECT CENTRELINE PROJECT 9 PARTNERS FROM 6 EUROPEAN COUNTRIES WWW.CENTRELINE.EU COORDINATED BY BAUHAUS LUFTFAHRT E.V. DURATION JUNE 2017 MAY 2020 This project has received funding from the European Union s Horizon 2020 research and innovation programme under grant agreement No. 723242

PROJECT COORDINATOR PROJECT OFFICE Bauhaus Luftfahrt e.v. Dr. Arne Seitz Willy-Messerschmitt-Str. 1 82024 Taufkirchen centreline-coordinator@eurtd.com ARTTIC Dr. Martin Dietz, Sophie Rau Oskar-von-Miller-Ring 29 80333 Munich centreline-arttic@eurtd.com ConcEpt validation study for fuselage wake-filling propulsion integration Research Industry University SME CONSORTIUM @CENTRELINE_EU EU HORIZON 2020 AVIATION RESEARCH PROJECT CENTRELINE PROJECT 9 PARTNERS FROM 6 EUROPEAN COUNTRIES WWW.CENTRELINE.EU COORDINATED BY BAUHAUS LUFTFAHRT E.V. DURATION JUNE 2017 MAY 2020 This project has received funding from the European Union s Horizon 2020 research and innovation programme under grant agreement No. 723242