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THE SESAR PARTNERSHIP - ISERD · SESAR Joint Undertaking Common projects Technology Technology. 5...

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THE SESAR PROGRAMME R&I 2020: FUTURE DEVELOPMENTS
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THE SESAR PROGRAMME R&I 2020: FUTURE DEVELOPMENTS

THE SESAR PARTNERSHIP

3

Change in Air Traffic Management infrastructure is inevitable

Implementing the Single European Sky

4

Performance Safety Human factor

Performance scheme

Performance Review Body

Functional Airspace Blocks

Network Manager

National Supervisory Authorities

EASA Crisis coord.

cell

Airport observatory

Specific sectoral dialogue Committee

Consultative expert

group on social dimension

of the SES

Airports

European ATM Master Plan

SESAR Joint Undertaking

Common projects

Technology Technology

5

The Fundamental Changes of ATM

INTEGRATION OF AIRPORTS

THE 4D TRAJECTORY

PRINCIPLE

AUTOMATION

Human operators

concentrate on high value-added tasks

THE SYSTEM WIDE INFORMATION MANAGEMENT

COLLABORATIVE NETWORK PLANNING Integrated with airport operations planning and airspace

user flight planning

Integrating airports - time synchronised

operations of surface trajectories and flight

turn-around

Integrating airspace users flight systems to build

predictable time synchronised flight

precision

The Intranet for Air Traffic Management

FAA visit January 22 2014

An EU framework for modernising ATM

SESAR definition

ATM Master plan

Development & validation

Deployment

Common projects

Governance

Incentives

Deployment programme

Eurocontrol

The SESAR Joint Undertaking (SJU)

EUR 2.1 bio PPP (European Union, Eurocontrol and Industry)

15 other members

13 associate partners = 110 companies in total 20+ countries

3000 people working on SESAR

300+ projects

Duration: Dec. 2016 Recent position of the EU Transport Ministers:

extension until 2024, subject to….

European Union

2 FOUNDING MEMBERS

FAA visit January 22 2014 7

Unique Public Private Partnership (PPP)

Members

Associate partners

The SJU a unique PPP

2 FOUNDING MEMBERS

SJU Involves All Actors

A Multi-Stakeholder approach at the heart of our way of working

Airports

Ground Industry

Airborne Industry

National Authorities/

Military

R&D community

Staff associations

Air Navigation

Service Providers

Airspace users

THE SESAR PROGRAMME

ATM Master Plan

Single

European Sky

The Innovation and R&D Cycle

Concept development, System development & verification,

Validation, Delivery

SESAR Solutions

Programme Management & Technical process domains to support and monitor the execution of the R&D cycle

Prog1 WP-E

Prog1 WP3-16, B,C

Research-Innovation

Exploratory Research (WPE)

Focussing on:

Business Agility

Decision Support

Environment & Meteorology

CNS/ATM (Automation)

Operating Concepts

The Human Factor

Mastering Complex Systems

Safely

System Architecture

& System Design

Information Management, Uncertainty & Optimisation

Enabling Change in

ATM

Towards Higher Level

of Automation in

ATM

11 Projects 7 PhDs

17 Projects 13 PhDs 3 Projects

3 Projects 6 Projects

13

Overseen by SJU Scientific Committee

Open calls for participation

• Starting point: – Implementation of SES initiatives has so far not met

expectations – Up to now solution seemed to be regulation –

orientated

• Research question: – How to create the right environment to generate a

successful introduction of the new air traffic management technologies?

– Can change come from within the sector?

• Methodology – What can we learn from parallel experiences? – Economic modelling using game theory, concepts

of industrial organisation, regional forerunners, etc.

14

Accelerating Change of Air Traffic Management by Regional Forerunners - ACCHANGE

Time based separation

Enhanced situational awareness

Ground safety nets

Dynamic vortex separation

Brake to vacate

Low Visibility procedures using satellite GBAS

Point Merge

Approach Procedures with Vertical Guidance

Continuous Climb & Descent

Business & Mission trajectory

Trajectory authorisation & revision using datalink

Cruise climb

Free routing

System interoperability with air & ground data sharing

Trajectory Management Framework

Surface planning & routing

Integrated Departure & Arrival Manager

AMAN & Point Merge

Arrival & Departure Management

Complexity Assessment & Resolution

Airport Operations Planning

Advanced Flexible Use of Airspace

Cruise climb

User Driven Prioritisation Process

Integrated Controller Working Position

Remote Tower

Network Operations Planning

Surveillance Ground System Enhancement

Enhanced situational awareness

Integrated Controller Working Position Conflict Detection & Resolution

Sector Team Operations

Performance Based Navigation

Enhanced Short Term Conflict Alert

Collision Avoidance Monitoring

Airborne Spacing & Separation

Pilot Enhanced Vision

Optimised RNP

Advanced Flexible Use of Airspace

Satellite based Communication & Navigation

Enhanced Decision Support Tools

Enhanced ATFCM Process

Extended AMAN

Scope of Core Programme

How SESAR R&D Delivers

FAA visit January 22 2014 16

R&

D P

RO

JE

CT

S

MA

ST

ER

PL

AN

P

RO

GR

AM

ME

Time Based Operations

Trajectory Based Operations

2014

2017

Performance 2020+

RELEASE 1 SESAR Solutions

17

1. Precision Navigation (PRNAV) in a complex TMA 2. Validation of LPV approach as fallback for ILS 3. En Route Traffic Organizer for ATC controller 4. Enhanced Short Term Conflict Alert for TMA specific

operations 5. Altitude capture laws improving compatibility with

ACAS & Automatic Responses to ACAS RA 6. DMAN Baseline to be used for Integration of AMAN-

DMAN 7. Low cost Departure data entry panel

TA

New ALT Capture law

no more nuisance RA

FL100

FL110

3400 feet/min 30 s = 1700 ft

Adjust vertical

speed

FL100

FL110

3400 feet/min

RA

RELEASE 2 SESAR Solutions

18

1. Point Merge in CDG 2. Towards User Preferred Routing 3. Automated support for Dynamic Sectorization 4. Single Airport Remote Tower 5. Time Based Separations for traffic in approach phase 6. Point Merge in complex TMA 7. AOC Data Increasing Trajectory Prediction Accuracy 8. Multi-Sector Planning

WHAT Digitally enhanced pre-flight briefing services (ePIB)

using Digital NOTAM data coming through SWIM

services from Digital NOTAM encoding applications

(prototypes) and digital MET data sources.

Aim

Improve the quality and the efficiency of information

transferred by reducing the noise caused by flight

irrelevant notifications

Reduce the time needed for information transfer, by

pinpoint filtering of information

Reduce the risk of misinterpretation (by pilots) of

information

Make the experience of retrieving and browsing the ePIB

information more enjoyable for users

Validation method Real Time Simulation

Validation : December 2014

Digitally Enhanced Briefing Services Validation (ePIB)

Page 19

Flight Trajectory

Management

System

(WP 13.2.1)

Digital Briefing

Application

(WP 13.2.2)

SWIM

Data Pool

Get data

AI/MET/Flow/etc.

Get data

AI/MET/Flow/etc.

Get flight data

trajectory/FPLProvide flight data

trajectory/FPL

Integrated Briefing Portal

Flight planning

functionality

PIB

functionality

PilotDispatcher/ARO

ATM Operator

On-board

briefing device

Demonstration Activities

• WHY :

– Apply SESAR Solution in other operational environment

– Generate further confidence to support buy-in from main stakeholders including regulators for future deployments

– Accompany SESAR pioneers all the way to pre-deployment

• WHAT

– 18 demonstration projects and 09 RPAS demonstrations

– Involving over 5000 commercial flights and 20 air operators

– Demonstrating significant performance gains can be achieved on flights within Europe and between Europe and North America, Latin America and Africa

– Final results of these projects will be gradually communicated in the course of 2014 and 2015

20

09 “RPAS Demonstration Projects”, which include integrated

pre-operational flight trials activities, have been selected:

RPAS “Demonstration Projects”…

Airports

RPAS Flight

Operator

Industry ANSP

21

A large number of stakeholders in key location in Europe

22

Coordinator

Air Operator

ANSP

RPAS.04 - Mediterranean ATM Live Exercise

MAIN OBJECTIVE: Demonstrate the validity and limits of the ad-hoc operational procedures and airworthiness rules as well as of the existing technologies and systems focusing on a gap analysis between existing RPAS capabilities and the required for RPAS insertion into non-segregated airspace.

VALIDATION APPROACH: Real-time simulations and flight trials on Alenia Aermacchi Sky-Y aircraft.

TYPE OF RPAS: MALE remotely piloted

PROJECT ENDS: October 2015

PARTNERS:

LOCATION: Italy

23

Global Cooperation & Interoperability

•Standards built on SESAR and NextGen developments will support harmonised Implementation and Regulation

•Programme level coordination enhanced by interoperability and wider industry buy-in.

EC/FAA Coordination

EUROCAE

RTCA etc.

NextGen SESAR

ICAO

MOVING FROM DEVELOPMENT TO DEPLOYMENT

Ensuring the deployment of SESAR R&D results

ATM Master Plan Outlines the essential operational and technological changes as well as standardisation and regulatory activities

PCP Cover a first package of essential changes identified in the MP with the sufficient maturity and justification to be deployed at European level

Updated in 2012

Proposal submitted by the SJU to the EC in May 2013. Formal consultation launched 02/12

PLA

NN

ING

VIE

W

BU

SIN

ESS

VIE

W

EC mandate received August 2012

27

6 PACKAGES IDENTIFIED FOR NEAR TERM IMPLEMENTATION (Relates to ICAO Block 1)

Building the infrastructure of the future

Key functional improvements addressing critical network performance deficiencies

1. Extended AMAN and PBN in high density TMAs

2. Airport Integration and Throughput Functionalities

3. Flexible Airspace Management and Free Route

4. Network Collaborative Management

5. iSWIM: ground-ground integration and aeronautical data management & sharing

6. Initial Trajectory Information Sharing: air-ground integration towards i4D

How much? The Investor’s View

Main influence factors for PCP

benefits

ANSP Productivity

Gains (+3,4%)

Airspace Capacity (+12,6%

TMA, +8,7 En-Route)

Airport Capacity (+3,9%)

Delayed flights

(-9,8%)

Delay length (-12,2%)

Fuel Burn (85,8

Kg/flight -2,1%)

Overall PCP Benefits

2014 - 2030; bn €; undiscounted (discounted)

Delay Cost Savings

CO2 Credit Savings

ANS Productivity gains

Fuel Cost Savings

Total Benefit

8,0 (3,3)

2,8 (1,1)

0,8 (0,3)

0,6 (0,2)

12,1 (4,9)

• Global framework ICAO based on input

• SESAR, NextGen (US), CARATS (Japan), others

• European input to ICAO based on SES/SESAR

• ATM Master Plan aligned with ASBU

• Global cooperation is essential

• EU – US for SESAR-NextGen

• Europe – other regions

• Europe – ICAO

Aviation = Global

SESAR RESEARCH & INNVOVATION 2020

Programme 2020 Key Features

32

Maturity Life Cycle

33

High Performing Airport Operations

• Flight deck automation (optimise speed ajustement, engine-off taxi)

• Brake to vacate via datalink

• Full integration of AMAN-DMAN –ASMGCS

• Total Airport management including passenger flow

• Remote tower for multiple airports

34

Optimised ATM Network Services

• User Driven Priority Process

• Rolling Network Operation Plan integrating Airport Operation Plan

• Dynamic Airspace configuration (e.g. sectoristaion)

• Dynamic Mobile Areas

35

Advanced Air Traffic Services

• Increased automation for conflict detection and resolution (4D Trajectory)

• Sectorless operations

• Multi sectors planning

• Full free routing accross borders (e.g. FAB) in high/very high traffic complexity

• Airborne Separation procedures and tooling (e.g. safety nets – STCA, ACAS)

36

Enabling the Aviation Infrastructure

• CNS

• SWIM : Airborne to Ground

• Civil RPAS; GA & Rotorcraft integration

• 4D Trajectory Management

37

POTENTIAL AREAS OF INTEREST

Areas of Interest

• Civil RPAS integration in ATM

• Cyber Security

• 4D Trajectory Management

• Advanced Airspace Management

• Airport Management integrated in the Network

• Very Large Scale Demonstration

39

40

Civil RPAS Requirements & Challenges

Requirements for RPAS integration are linked to the European ATM Master Plan and the ICAO Global Plan/ASBU timeline

RPAS will have to fit into the ATM system (and not the reverse), with required adaptations to enable the safe integration of unmanned systems

RPAS will have to prove to be as safe as current manned vehicle operations and, their behaviour in operations, to be equivalent to manned aviation, in particular for air traffic control

Refine the essential R&D activities for the integration in the EU Aviation System in the context of the SES initiative, as of 2016 and beyond

Identify globally interoperable and harmonised ATM requirements and enablers to meet the performance requirements

Produce a R&D and Validation programme - including planning, costs and priorities, as required by the different identified ATM requirements and enablers

Establish a high level implementation timeline, including costs and priorities

Provide material supporting the alignment of the legislative, financial and regulatory frameworks required for the deployment, including incentive mechanisms

Civil RPAS Definition Phase(1/2)

41

The Civil RPAS Definition Phase has to result in the following tree of activities:

Deliverable D.1: Regulatory and Business Framework

Deliverable D.2: Performance Requirements and Assessment

Deliverable D.3: Operational Changes in ATM

Deliverable D.4: Enabling Systems

Deliverable D.5: Validation Needs

Deliverable D.6: SESAR Civil RPAS R&D Progr. requirements and outline

Deliverable D.7: Input to the EU ATM Master Plan

Evaluation in progress - Kick-off end of July - End in March 2015

Civil RPAS Definition Phase(2/2)

42

The ATM System has to be trusted by the general public and by Governmental Authorities: sufficiently secure, resilient and trustworthy

As ATM System relies on SWIM: effective protection is essential to guarantee the effectiveness, efficiency and economy

Not only a technological change but also a cultural change due to its existing architecture, components and reliance on human operators

A systemic approach to cyber-security for SWIM, considering in particular best practices implemented in other sectors

An opportunity with regard to operational and cross-border interoperability (needs for international cooperation to ensure interoperability, standards definition...)

Need to understand the economic implications of any proposed investments in this area, for an accepted level of risk

Why a Cyber-Security Study?

43

Introduce a holistic approach to cyber-security which complement the SESAR ATM security approach

Provide a scalable approach and applicable across different stakeholders in different Member States at different levels of security maturity

Support the SESAR next developments, in particular SWIM

Be the grounds of a cyber-security strategy to participate to the effective deployment of the new ATM systems and to their interoperability

Consider the interoperability dimension, the definition of standards agreed at international level

Provide:

Deliverable D.1: an ATM Cyber-Security Threat and Vulnerability Assessment

Deliverable D.2: a SESAR Target ATM Cyber-Security Framework

Deliverable D.3: a SESAR Cyber-Security Maturity Assessment

Deliverable D.4: a SESAR Cyber-Security Strategy

Study kick-off in May 2014 – foreseen end March 2015

Objective and Scope of the Study

44

How can SESAR’s 4D trajectory management help?

45

Aircraft downlink their intended trajectory

(EPP)

Ground Trajectory Prediction becomes

more accurate

On request aircraft downlink min/max time over a point

And can precisely (+/- 10 seconds) be at a

point at the time we want them to (RTA)

Ground-ground IOP ensures trajectory

view is the same for all actors

SESAR: matching 2D air and ground trajectories

46

Ground Trajectory Prediction (TP)

Lateral discrepancy to be resolved by controllers

Route discrepancy indicator (2D)

EPP downlink (FMS trajectory) - Estimates according to FMS

horizontal speed schedule - Altitudes / flight levels according

to FMS vertical speed schedule Source: 04.03 D64 draft (MUAC RTS)

Top of Descent

Advanced flexible use of Airspace

Squadron Squadron

Squadron

Squadron

• Airspace Booking System linking the squadrons to Network Manager via National Management Cell

Dynamic Mobile Area (DMA) Type 1

• Defined by NM according to agreed plan, with times

DMA Type 2

• Defined along aircraft trajectory only where needed

Airport Integration in ATM – Problem Statement

50

ANSP ANSP

Approach Departure En-route En-route

Departure

Fix

Runway

Entry Point

Network

Operations

Plan

(NOP) Black Hole

Network

Operations

Plan

(NOP)

Entry Fix

TMA

Runway

Threshold

Airport Operations Plan (AOP)

• En-route-to-en-route-conversion of the Network Operations Plan (NOP), enriched by airport-specific data

• Single, common and collaboratively agreed rolling plan available to all airport stakeholders

• Purpose

– Provide common situational awareness

– Form the basis upon which stakeholder decisions relating to process optimisation can be made

51

Network & Airport Operations Plan

Rolling Network Operations Plan integrating Airport Operations Plan

Airport Operations Centre (APOC)

• Platform/operational structure which pro-actively manages the performance of present and short-term airport operations

• Gives a common operational overview of the airport to the airport stakeholders

• Supports information sharing, coordination and collaborative decision making

• Unique interface between the airport and the NM

53

CDG PMI

PARTICIPATIONS OPTIONS IN SESAR 2020

Building SESAR 2020

55

Call for expression of interest

56

Principles and Definitions

– “… the closer to the market the supported activity is, the larger the additional funding from other sources should be …”

– “innovation action' means an action primarily consisting of activities directly aimed at producing plans and arrangements or designs for new, altered or improved products, processes or services. For this purpose they may include prototyping, testing, demonstrating, piloting, large-scale product validation and market replication”

57

Co-financing rates

• Exploratory Research

– for research actions: up to 100% of the eligible costs

– for innovation actions, if some beneficiaries or linked third parties are non-profit legal entities and some are profit legal entities:

• Up to 100% of the eligible costs of the beneficiaries and linked third parties that are non-profit legal entities, and

• Up to 70% of the eligible costs of the other beneficiaries

58

Co-financing rates

• Core Programme and VLSD

– innovation actions

– if some beneficiaries or linked third parties are non-profit legal entities and some are profit legal entities:

• 100% of the eligible costs of the beneficiaries and linked third parties that are non-profit legal entities, and

• 70% of the eligible costs of the other beneficiaries

59

Eligible Costs

• Direct Costs: actual costs or unit costs in certain cases

• Indirect Costs: flat rate of 25% on the direct costs (minus subcontracting, costs incurred by third parties not used in the beneficiaries’ premises and costs of providing financial support to third parties

60

61

Thank you for your attention

www.sesarju.eu


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