Advanced Safe Separation Technologies and Algorithms (ASSTAR) Project

Transcription

1 Advanced Safe Separation Technologies and Algorithms (ASSTAR) Project Aeronautics Days 2006, Vienna 19 th -21 st June 2006 ASSTAR is a Specific Targeted REsearch Project (STREP) sponsored by The European Commission Directorate General RTD - within the 6th Framework Programme (contract number AST4-CT ). The programme started in January 2005 and has a duration of 30 months.

2 Contents Project Overview Separation Applications in Radar Controlled Airspace Pass Behind/In-front (ASEP-LC&P) Separation Applications in Oceanic (Remote) Airspace In Trail Procedure (ASEP-ITP) In Trail Follow (ASEP-ITF) Self-Separation Applications Self Separation on a Free Flight Track (SSEP-FFT) page 2

3 Project Overview

4 Project Overview Throughout the world, and particularly in Europe, Air Transport is experiencing major capacity, efficiency and environmental pressures. Flights are frequently delayed, with aircraft flying on non-optimal routes. As a consequence, fuel is wasted and the long-term economic survival of European Airlines and their support services is at risk. Maintaining safety levels in the face of the increasing demand for capacity, estimated as a factor of three by 2020, is a critical challenge. ASSTAR brings together a powerful team of European ATM researchers, industry and, in particular, airlines and ATS providers, to evaluate a subset of potential airborne separation assistance applications. page 4

5 Consortium Partners Consortium Partners BAE Systems (UK) (Project Co-ordinator) Sistemi Innovativi per il Controllo del Traffico Aereo - Sicta (IT) Euro Telematik (GE) Thales Avionics (FR) National Air Traffic Services - NATS (UK) HELLAS JET (GR) National Aerospace Laboratory NLR (NL) Direction des Services de la Navigation Aérienne - DSNA (FR) University of Glasgow (UK) EUROCONTROL Experimental Centre (FR) Technological Educational Institute of Piraeus (GR) University of Zilina (SL) EUROCONTROL page 5

6 Project Objectives ASSTAR is a EC Framework 6 STREP researching: Crossing and Passing Applications Delegation of separation responsibility Radar and Oceanic Environments Research objectives support introduction in time frame ASAS manoeuvre design and algorithm definition Definition of supporting procedures Air & Ground installation & implementation issues Benefits Safety assessment Impact on Regulations page 6

7 Operational Environment page 7

8 Separation Applications Radar Controlled Airspace

9 Crossing & Passing (ASEP-LC&P) Separation application based upon Package 1 application ASPA-C&P ASSTAR separates vertical and horizontal separation applications ASEP-LC&P (Lateral Crossing & Passing ) ASEP-VC&P (Vertical Crossing & Passing ) Only LC&P is considered within ASSTAR Differences from ASPA-C&P Delegation of responsibility for separation Similarities to ASPA-C&P Manoeuvre types Application phases page 9

10 ASEP-LC&P: Pass Behind Turning point route Closest point of approach End of delegation Clearance aircraft Conflict aircraft Clear of traffic and resume point page 10

11 Separation responsibilities page 11

12 Impact on Roles and Procedures Controller is responsible for: Conflict detection Initiation of the application Separation of other traffic from involved aircraft Air crew is responsible for: Selection of conflict resolution strategy Execution of conflict resolution strategy Informing controller when conflict has been resolved New procedures will be required Additional training for both controllers and flight crews page 12

13 Separation Applications Oceanic and Remote (Non-Radar) Airspace

14 In Trail Procedure Other aircraft Other aircraft ITP Aircraft Standard Longitudinal Separation Requirement ITP Criteria Other aircraft Standard Longitudinal Separation Requirement Reference Aircraft FL360 FL350 FL340 page 14

15 In Trail Procedure (ASEP-ITP) Separation application based upon Package 1 application ATSA-ITP Differences Active monitoring phase during flight level change Aircraft are responsible for separation Similarities Applicability conditions unchanged (Could be extended though) page 15

16 In Trail Follow (ASEP-ITF) Separation application based upon Package 1 application ASPA-S&M Differences Aircraft are co-altitude Aircraft are responsible for separation Extended duration (several hours) Spacing defined in minutes rather than seconds Similarities Procedural termination condition - exit from track Merge instructions can be used to initiate spacing at track entry page 16

17 In Trail Follow (ASEP-ITF) Required Spacing Separation Minimum Recommended Speed Adjustments Provided to Flight Crew Speed Up Slow Down Ownship Current Spacing Traffic Tolerance Zone page 17

18 Self-Separation Applications

19 Organised Track System page 19

20 Self-separation on a Free-Flight Track (SSEP-FFT) Self-separation application on a Free-Flight Track Aircraft are responsible for separation Extended duration (several hours) Benefits Optimised flight profile (altitude and speed) Improved fuel economy Issues Procedural termination condition - exit from track Merge instructions can be used to initiate spacing at track entry page 20

21 Self-Separation responsibilities Ground Air Air Traffic Control Control MAS to SS Airspace Transition Delegation of Self-Separation Flight Information Service Status Reports Situation Awareness Conflict Detection Select Conflict Resolution Strategy Control SS Airspace to MAS Transition End Of Delegation Execute Conflict Prevention page 21

22 Conflict Resolution Strategies Predicted Protection Zone Predicted Protection Zone page 22

23 Impact on Roles and Procedures Controller is responsible for: Transition from managed to self-separation airspace Transition from self-separation to managed airspace Provision of flight information services Airborne domain is responsible for: Conflict detection Selection of conflict resolution strategy Execution of conflict resolution strategy Provision of flight status information New procedures will be required Additional training for both controllers and flight crews page 23

24 Benefits for Oceanic Applications

25 Benefits for Oceanic Applications Improved flight efficiency leads to benefits in the form of Reduced fuel consumption Reduced gaseous emissions Potential for increased payload Reduced maintenance costs Reduced diversion risk (due to reduced fuel consumption) Earlier arrival time Reduced ATC provision (ASEP-ITF and SSEP-FFT) Reduced turbulence Possible safety improvements page 25

26 THANK YOU Contacts Website page 26