research and safety at airbus ds -...
TRANSCRIPT
UPM SUMMER SCHOOL
LISA - Laboratory of ideas for Safety in Aviation. Addressing Aviation and ATM Safety Challenges
La Granja 11th-14th July, 2016
Jose Insenser, Airbus Defence and Space
Research and Safety at Airbus DS
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Summary
Airbus at a glance
Safety at Airbus DS Military Aircraft - Overview
Safety and Certification in Research
UAS Statu Quo
Open Innovation
Clean Sky 2
Increasingly Autonomous Systems
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Leading commercial aircraft
manufacturer
• Around 74,000 employees
• Since 2000, Airbus commercial
deliveries have increased by
60%
• Backlog more than doubled in
one decade (now equaling
10 years of production)
Fabrice Brégier
(CEO)
Leading helicopter
manufacturer
• Around 23,000 employees
• Accounts for 1/3 of the global
helicopter fleet
• Delivered about 4,000
helicopters over the past
decade
Guillaume Faury
(CEO)
Europe’s No.1 defence
and space company
• Around 38,600 employees
• Worldwide, it ranks second
for space and is among the
world’s top ten defence
companies
Dirk Hoke
(CEO)
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Military Aircraft
• A400M
• A330 Multi-Role Tanker Transport
• Special Mission Aircraft
• Combat Aircraft
• Unmanned Aerial Systems
• Full In-Service Support
• Launchers
• Telecommunication Satellites
• Earth Observation Satellites
• Navigation Satellites
• Orbital and Space Exploration Infrastructure
• Science Missions
• Earth Observation Satellite-based Geo-Intelligence Services
• Government Satellite Communication
• Command & Control (C5ISR) Systems
• Cybersecurity Solutions and Services
Space Systems CIS
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A strong position in every segment.
A400M: the most capable modern transport aircraft
MRTT: the benchmark for new generation tanker aircraft
C295: affordable, reliable and versatile platform
Eurofighter: Effective, Proven, Trusted
At the very top – our Military Aircraft
30%
60%
90%
market share
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Product and Flight Safety Organisation
Promote, develop and encourage all aspects of Product and Flight Safety
Scope: the Aircrafts we design (TC, STC, ITC), operate or are operated in our facilities
Support, Advise and Challenge the Functions
Interlocutor to Safety Agencies and Bodies
Methodology for accident investigation
Dissemination and Training related to Flight Safety
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Product and Flight Safety Process
All activities for prevention of accidents and incidents, to reduce risks in the operation, through the analysis of events occurred at any stage of the product life
Capture and analysis of all events that may impact on the Flight Safety
Lessons learnt in service, development and future A/C
Process improvement for the prevention of accidents
Multi-disciplinary addressing of issues; recording and traceability
Meeting all requirement by Airworthiness Authorities
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STANAG 4703
MTOW < 150Kg
STANAG 4702
Rotary Wing
UAS GCS Safety And Certification - Airworthiness
STANAG 4671
Suitable for Safe Flight
TOW between 150 and 20,000 kg
Operate in non-segregated airspace
Ground Segment Requirements:
Failure Probability
Human Factors
Recording Functions
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UAS GCS Safety And Certification - Redundancy
Avoid Single Point of Failure
Critical Functions (HW&SW)
Operators
Data buses
Power Supply
Air Conditioning
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Health monitoring panels
CLEAR
ABORT ATOL
NAV LIGHT ON
NAV OFF
COLL LIGHT ON
COLL LIGHT OFF
DE-ICE
LAND
LEFT HOLDING
RESUME NORMAL FLIGHT
ACTIVE FP
EMERGENCY STOP
EMERGENCY RECOVERY
PDL RESET SDL RESETRIGHT
HOLDING
AUDIO FREQ
855 Hz
AUTOMATIC
SEMI AUTOMATIC
PDL ON
PDL OFF
SDL ON
SDL OFF
DOWN-LINK PDL
DOWN-LINK SDL
DL ACTIVE
DL SILENT
ALTITUDE
2580 ft
SPEED
147 kts
HEADING
147 º
GO WP
8
PDL CHANNEL
16
SDL CHANNEL
8
CLEAR ATOL
IFF ON
IFF OFF
MODE
1,2,3,4
IFF CODE
xxx
CONFIRM
HEADING
CANCEL
HEADING
0
1
4
7
2 3
5 6
8 9
HEADING: 18_ º
+10
-10
+1
-1
BANK ANGLE
5 º
QNH
1005 mbar
DIM ON
DIM OFF
Command panels
Commands and health monitoring computers
Mission Planning and Monitoring workstations
Servers
Mission Planning and Monitoring panels
Critical Part
RT HW Architecture (VME/VPX) ARINC 653 RTOS
DO-178B DAL D/A SW Redundant IP networks
Redundant hardware
Non-Critical Part PC x86 Architecture General Purpose OS Independent network Workstations + Servers
Health monitoring panels
CLEARABORT ATOL NAV LIGHT ONNAV OFFCOLL LIGHT ONCOLL LIGHT OFFDE-ICELANDLEFT HOLDINGRESUME NORMAL FLIGHT ACTIVE FPEMERGENCY STOPEMERGENCY RECOVERY PDL RESET SDL RESETRIGHTHOLDING AUDIO FREQ855 HzAUTOMATICSEMI AUTOMATIC PDL ONPDL OFF SDL ONSDL OFF DOWN-LINK PDLDOWN-LINK SDLDL ACTIVEDL SILENTALTITUDE2580 ft SPEED147 ktsHEADING147 º GO WP8 PDL CHANNEL16 SDL CHANNEL8CLEAR ATOL IFF ONIFF OFF MODE1,2,3,4IFF CODExxxCONFIRMHEADING CANCELHEADING0147 2 35 68 9HEADING: 18_ º +10-10+1-1BANK ANGLE5 º QNH1005 mbarDIM ONDIM OFF
Command panels
Commands and health monitoring computers
Mission Planning and Monitoring workstations
Servers
Mission Planning and Monitoring panels
Critical Part
RT HW Architecture (VME/VPX) ARINC 653 RTOS
DO-178B DAL D/A SW Redundant IP networks
Redundant hardware
Non-Critical Part PC x86 Architecture General Purpose OS Independent network Workstations + Servers
UAS GCS Safety And Certification - Segregation
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UAS GCS – Human Factors
Human Centered Design Human Errors: Incorrect actions / reactions
“Human errors effects should be minimized”
Tasks Analysis Warnings and related actions
Multi-Vehicle Control
Operators per vehicle
Data Analysis
Workload vs. automation
Ergonomy Field of View
Accessibility
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UAS GCS – Security
TEMPEST Protection against leaking emissions
RED/BLACK segregation
Common Criteria for ITSec Evaluation Information security
Standardised evaluation and certification procedures
Different Assurance Levels (EALs)
Challenges Security vs. operation
Security vs. safety
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UAS GCS Open Innovation
Air To Air Refueling
Integration in NSA
Embedded Training
Situational Awareness
Stress Management
Automated Mission Planning
Secure GCS
Decision Support
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UAS GCS Open Innovation
• Speech Recognition
• Stress assessment
• Gesture control
• Augmented reality
• Multi-UAV control
• Multimedia interfaces / VR
• Minimum time search
• Multiagent mission
planning
• Pattern detection for
training
• Automatic AAR
• Health Monitoring
• Security
• Integration in NSA
Research Program
Customer View
Research Demonstrator
SAR EO/IR MTI / ESM
TUAV MALE
Vision
CONOPS
Design
R&T GCS (GREPS)
Partner
components
SAVIER goal: an Open Innovation Research Program and a parallel Research Demonstrator to validate and integrate the state-of-the-art technological components from the research,
for the future Airbus D&S UAS Family GCS
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UAS GCS Open Innovation (2/12: UAS in ATM & Cyber) TD07 - Innovative Authentication,
Authorization and Audit for distributed
interoperable GCS architectures
Control of Mobile Information Access,
Database Access , Operating System Access,
C2 Access
TD012 - Future intensive use of UASs for civil
and military applications in non-segregated
airspace
DSS for GCS communication with ATM to
integrate UAVs into SESAR 2020 non
segregated airspace
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R&D – Clean Sky 2
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R&D – CS2 Next Gen Systems, Cockpit and Avionics Challenge
Increasing complexity of the aircraft / systems (need for performance and vehicle optimization), in particular in abnormal or adverse conditions,
Increasing complexity of the ATS as a whole , and of ATM in particular,
Increasing heterogeneity of crew population and of their operational environment
Ensuring high safety level,
Supporting the growth of fleet and of global traffic
Providing operators with solutions for economic benefits such as to enable flexibility of operations
minimize disruption of service (failure, weather, …),
answers to disruptive “expectations” from low cost operators
connect aircraft to all operations,
reduce time to market with affordable new functionalities,
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R&D CS2 Next Gen Systems, Cockpit and Avionics
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R&D – CS2 Next Gen Systems, Cockpit and Avionics Disruptive Cockpit
Continuous auto-pilot, reduce pilot workload
Systems management improvement
Aircraft status, pilot health and behaviour monitoring
Mission management systems to support aircraft navigation, e.g. helping to manage diversions
More intuitive interfaces for integration of all commands and displays
Augmented vision system with HUD/HDD
Speech recognition /or head-down displays
Context: SESAR2 ATS, 4D trajectories, highly connected (AOC/ATC)
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R&D – CS2 – Next Gen Systems, Cockpit and Avionics
Enhanced Flight Operations Head Worn Display System Failure Cockpit Pilot Monitoring System Voice to System & Multimodality
Aircraft Monitoring Chain Ground support operator to assist pilots in order to ensure safe
operation and maintain the A/C integrated into the ATM infrastructures, Provide the remote operator adequate HMI to an operational
environment where several aircrafts are monitored simultaneously
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CS2 – Pilot Workload Reduction Project Simplify pilot interactions in the cockpit considering Human Factors
Develop new ways of improving pilots Situational Awareness and reduce pilots Workload keeping flight safety level and operation effectiveness.
• Five Topics are researched in collaboration with other European Industries and Research Centers with the proposal of:
o Reducing the number of dedicated manual controls and procedures
o Enhancement of displayed information to the pilot
o Monitoring the pilot capacity status (in terms of fatigue, stress, etc.) and provide a ground support under specific situations to ensure safety operation
The main goal is to elevate the maturity level of these technologies in order to introduce the improvements in the next generation of our Transport Aircraft
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CS2 – Pilot Workload Reduction Project
Information Relevant to
the task
Reliable Ground-Air data comm.
Light Weight Eye Visor for displaying information that require
imminent actuation.
Voice to Command Speech recognition
technology for reducing crew manual interaction
in the cockpit
Procedure Automation Automate warning response by letting the system to run
checklist & associated actions and A/C
reconfiguration per flight phase
Pilot data acquisition prognosis & diagnosis system
Develop new concept for prognosis & diagnosis techniques for pilot
monitoring using non-intrusive sensors
Aircraft Monitoring Chain for ground support.
Ground support operator to provide assistance under
specific situations to to ensure a safe operation
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CS2 – Pilot Workload Reduction Project
On-Ground demostration in a Cockpit Simulator Each individual technology solution will be integrated and evaluated standalone. Finally an operational evaluation will be performed in a second step, including more complete scenarios, with the integration of all technological solution in order to determine how these technologies contribute to the expected operational & Human Factors objectives
In Flight Demonstration Voice to Command Pilot Data Acquisition Prognosis & Diagnosis
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CS2 – Pilot Workload Reduction – High Level Objectives
Enhancement Light-Weight Eye Visor • To reduce visual transition in/out the cockpit in critical phases of flight (T/O,
LDG, Approach) in all external light conditions. • To project the visual information in eye line, using Light-Weight Eye device,
not requiring Helmet wearing. • To improve data integration and processing from aircraft systems providing to
the crew the needed information relevant to the tasks. • To help the crew by reducing the time and effort on accessing to the
information with the development of new smart Head-up symbology minimizing cluttering .
• To be integrated and validated into the Cockpit Simulator –TRL4/TRL5
IOP
Visor
ND
Video Computer
ETCAS
EGPWS
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CS2 – Pilot Workload Reduction – High Level Objectives
Voice Recognition Command.
• To reduce crew manual interaction in the cockpit in order to increase manual crew spare activity capacity.
• To reduce the number of dedicated mechanical controls in the cockpit by using voice command with better ways other than direct manual activation.
• To increase speech recognition rate and pilot usability in all phases of flight and in different cockpit noise condition.
• Voice command recognition pilot feedback using visual means (Light-Weight Eye Visor) • To be integrated and validated into the Cockpit Simulator –TRL4/TRL5 • If sufficient TRL is reached and it is feasible to adapt the system demonstrator for flight test
It will be tested in flight (FTB2) to reach TRL6
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CS2 – Pilot Workload Reduction – High Level Objectives
Procedure Automation
• To define a new approach in the pilot action philosophy either during normal operation or after system failure occurrence in order to increase procedure automation during the checklist running.
• To increase pilot mental spare capacity, especially during emergency situations. • To re-orientate pilot task from system management to other tasks that would
request more demand • To provide visual feedback (Light-Weight Eye Visor), in order to maintain pilot in-
the-loop during checklist running • To be integrated and validated into the Cockpit Simulator –TRL4/TRL5
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CS2 – Pilot Workload Reduction – High Level Objectives
Pilot data acquisition prognosis & diagnosis system.
• To identify the relevant physiologic parameter for stress and fatigue pilot measurement (BPD, GSR, ST, BR, HRV,….)
• To define the pattern for pilot behavioral during complex environment, critical phase of flight or degraded conditions
• To develop and to integrate pilot monitoring system, including new non-intrusive suit of parametric sensors
• To integrate pilot monitoring system in the management system to permit a workload reduction
• To develop new patterns and algorithms for pilots based on machine learning • To explore new concept for prognostic and diagnostic techniques applied to pilot monitoring. • To be integrated and validated into the Cockpit Simulator –TRL4/TRL5 Acronyms:
BPD: Blood Pressure GSR: Galvanic Skun Response ST: Skin Temp. BR: Bread Rate HRV: Heart Rate Variability
Pilot Monitoring FMS ATC
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CS2 – Pilot Workload Reduction – High Level Objectives
Aircraft Monitoring Chain for Ground Support.
• To allow a Ground support operator(s) to provide the proper assistance to the onboard pilot(s) in order to ensure a safe operation in the most adequate conditions taking into account external information not available to the onboard crew.
• To provide this operator(s) with an adequate HMI to this operational environment where several aircrafts could be monitored simultaneously.
• To perform a detailed analysis of the workload and tasks required to this remote operator(s), in basis of the prototype of the on-ground system to be developed.
• To analyze the needs and necessary means in terms of communication system(s) to ensure the capabilities above mentioned.
• As a practical demonstration of the technical solution developed, the system shall generate a flight plan on the ground segment, which will be uploaded for its acceptance by the onboard pilot(s), by means of the ground-air communication system.
• To be integrated and validated into the Cockpit Simulator –TRL4/TRL5
ATC
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Increasingly Autonomous Systems
Promise safety, reliability, efficiency, affordability and mission capability improvements
Able to perform more complex tasks with less human intervention, remotely, for ATM and other ground-based elements of the ATS
Unanswered questions: how to safely integrate these revolutionary technological advances into a well-established, safe, and efficiently functioning ATS
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Increasingly Autonomous Systems – Tech Barriers
Communications and data acquisition
Cyberphysical security
Decision making by adaptive/nondeterministic systems
Diversity of vehicles
Human–machine integration
Sensing, perception, and cognition
System complexity and resilience
Verification and validation (V&V)
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Increasingly Autonomous Systems
Regulation Barriers
Airspace access for unmanned aircraft
Certification process
Equivalent level of safety
Trust in adaptive/nondeterministic IA systems
Additional Barriers
Legal issues and
Social issues
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Recommendation
Develop standards and processes for the verification, validation, and certification of IA systems, and determine their implications for design
Develop methodologies for accepting technologies not traditionally used in civil aviation (e.g., open-source software and consumer electronics products) in IA systems
Safety and Efficiency. Determine how IA systems could enhance the safety and efficiency of civil aviation
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