An Adaptive Framework for Optimization and Prediction of Air Traffic Management (Sub-)Systems with Machine Learning
Abstract
:1. Introduction
1.1. Status Quo
1.1.1. Interdependencies—The Reason for Using Artificial Neural Networks (ANN) in Air Traffic Management (ATM)
- Topic areas have evolved into different performance-based approaches, resulting in different terminologies;
- Inadequate coordination between policy making, planning, research/development/ validation, economic management, and operations management;
- Inadequate coordination among stakeholders creates a fragmented aviation system;
- Inadequate coordination at the local, regional, and global levels results in less than ideal interoperability;
- A fragmented approach from an operational perspective results in less than ideal flight efficiency and airport operations efficiency.
1.1.2. Former Research
1.2. Scope & Structure of the Document
2. Virtualization of ATM (Sub-)Systems
- Agent-based: complex systems consist of individual parts that interact with each other (e.g., aircraft (AC), ground vehicles);
- Nonlinearity: minimal differences in initial conditions often lead to very different results, e.g., flight cancellations and long delays (butterfly effect). The cause-effect relationships of the system components are generally nonlinear;
- Emergence: emergent properties cannot be explained from the isolated analysis of the behavior of individual system components, but in their interaction;
- Interaction (interdependence): The interactions between the parts of the system are local; their effects usually global and thus affect the entire system assessment;
- Open system: complex systems are open systems (contact with their environment, e.g., weather);
- Paths: complex systems show path dependency: their temporal behavior depends not only on the current state, but also on the system’s previous history.
2.1. The Virtual ATM System
2.2. System Identification, Simulation, and Control
3. Modularized Framework for a Step-by-Step Virtualization
3.1. Step A: System Identification Modules
3.2. Step B: Simulation Modules (Prediction)
Robustness of Predictions
3.3. Step C: Control Modules
3.3.1. C1: Extraction of Interdependencies
3.3.2. C2: Metaheuristic Optimization
4. Prototypical Applications
4.1. Step A/B: System Identification & Simulation
4.2. Step C: Control
5. Conclusions & Outlook
Author Contributions
Funding
Conflicts of Interest
Abbreviations
A-CDM | Airport collaborative decision making |
AC | Aircraft |
ACGT | Actual commencement of ground handling time |
ADEP | Aerodrome of departure |
ADES | Aerodrome of destination |
ADS-B | Automatic dependent surveillance—broadcast |
AI | Artificial intelligence |
AIBT | Actual in-block time |
ALDT | Actual landing time |
ANN | Artificial neural network |
ANN | Artificial neural network |
ANNs | Artificial neural networks |
ANNs | Artificial neural networks |
ANSP | Air navigation service provider |
AOBT | Actual off-block time |
AP | Airport |
ARDT | Actual ready time |
ARR | Arrival |
ASAT | Actual start-up approval time |
ASMA | Arrival sequencing and metering area |
ASRT | Actual start-up request time |
ATC | Air traffic control |
ATFCM | Air traffic flow and capacity management |
ATFM | Air traffic flow management |
ATM | Air traffic management |
ATMAP | Air traffic management airport performance |
ATOT | Actual take-off time |
BGD | Batch gradient descent |
BPTT | Backpropagation through time |
CAD | CUSUM anomaly detection |
CANSO | Civil Air Navigation Services Organisation |
CI | Computational intelligence |
CNN | Convolutional neural network |
CNNs | Convolutional neural networks |
CNS | Communication navigation surveillance |
CUSUM | kumulierte Summe |
DDR | Demand data repository |
DEP | Departure |
DFF | Deep feedforward network |
DLR | Deutsches theZentrum für Luft- und Raumfahrt e.V. |
DTW | Dynamic time warping |
DWD | Deutscher Wetterdienst |
EA | Evolutionäre Algorithmen |
EC | Eurocontrol |
EEC | Eurocontrol Experimental Center |
EET | Estimated elapsed time |
EK | Europäische Kommission |
EOBT | Estimated off-block time |
ETA | Estimated time of arrival |
FAA | Federal Aviation Administration |
FAB | Functional airspace block |
FAF | Final approach fix |
FAMOUS | Future airport management operation utility system |
GUI | Grafische Benutzeroberfläche |
HAM | Hamburg Airport |
IAF | Initial approach fix |
IATA | International Air Transport Association |
IBS | Indivisible block system |
ICAO | International Civil Aviation Organization |
IFR | Instrument flight rules |
ILS | Instrumentenlandesystem |
KAMA | Kaufman’s adaptive moving average |
KI | Künstliche Intelligenz |
kMA | Moving average |
kNNs | künstliche Neuronale Netze |
KPA | Key performance area |
KPAs | Key performance areas |
KPI | Key performance indicator |
KPIs | Key performance indicators |
LGW | Gatwick Airport |
LIME | Local interpretable model-agnostic explanations |
LOU | Leave one out |
LSTM | Long short-term memory |
LSTMs | Long short-term memories |
MAE | Mean absolute error |
M-CDM | Multi-criteria decision making |
METAR | Meteorological aerodrome report |
METARs | Meteorological aerodrome reports |
ML | Machine learning |
MLP | Multi layer perceptron |
MLPs | Multi layer perceptrons |
MSE | Mean squared error |
NLP | Natural language processing |
OTP | On-time performance |
PBAM | Performance-based airport management |
PCA | Principle component analysis |
PI | Performance indicator |
PIs | Performance indicators |
PRU | Performance review unit |
PSO | Particle swarm optimization |
IQR | Quantilsabstand |
RBF | Radiales-Basisfunktionen-Netz |
RBFs | Radiale-Basisfunktionen-Netze |
RFE | Recursive feature selection |
RMSE | Root-mean-square error |
RNN | Recurrent neural network |
RNNs | Rekurrente Neuronale Netze |
RQA | Recurrence quantification analysis |
RWY | Runway |
SESAR | Single European Sky ATM Research |
SGD | Stochastic gradient descent |
SID | Standard instrument departure |
SRS | Simple random sampling |
STA | Scheduled time of arrival |
STD | Scheduled time of departure |
SVM | Support vector machines |
TAF | Terminal aerodrome forecast |
TAFs | Terminal aerodrome forecasts |
TAM | Total airport management |
TAMS | Total airport management suite |
TDNN | Time delay neural network |
TOBT | Target off-block time |
TOP | Total operations planner |
TSAT | Target start-up approval time |
UTC | Universal time coordinated |
vATM | Virtual air traffic management |
WMO | World Meteorological Organization |
DLR | Deutsches Zentrum für Luft- und Raumfahrt e.V. |
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A: Hamburg Airport (HAM) | B: Airport Gatwick Airport (LGW) | C: Boarding Airbus A320 | |
---|---|---|---|
Data source(s) | Flightstats, FlightRadar24, Openflights | simulation [30] | |
Time domain | 2013 | 2012–08/2015 | 25.000 boardings for 6 strategies |
Data tuples | 12.762 | 63.854 | 150.000 |
Features | 9 | 12 | 4 |
Goal of artificial neural networks (ANN) | prediction & classification of flight delays | prediction of boarding time | |
Publication | [4,5,6] | [3] |
Input X | System | Output y | Description |
---|---|---|---|
given | unknown | given | System identification: ways to create a data-based virtual system map (vATM), taking into account process-related constraints (e.g., weather influence, flight demand). |
given | given | unknown | Simulation: prediction of system state given known input quantities to estimate future behavior patterns (e.g., delay evolution). |
unknown | given | given | Control: deriving recommended actions to achieve defined objectives (e.g., flight demand estimation to minimize delays). |
Module | Description |
---|---|
A1: Problem identification | Detailed consideration of the purpose for which a system identification needs to be performed and how it will be used |
A2: Data structure analysis | Includes modules to evaluate data base |
Data pre-analysis | Exploratory analysis and visualization of data to select appropriate inputs |
Data processing | Data adaptation to the ML problem, error analysis if necessary |
Artificial neural networks (ANN) adjustment | preparation for application, selection of features and training data |
A3: Model choice | |
Regression | Direct mapping of discrete targets from multiple inputs |
Classification | Reduction of correlation analyses to labels/intervals |
Paradigm | Feed forward, recurrent, convolutional (depends on target) |
A/B: Computation | Translation from learning (system identication) to forecast/prediction (simulation) |
C: Control | Includes extraction, optimization and stability of the artificial neural networks (ANN) |
Original | ∑ | Delay [min] | ||||||
---|---|---|---|---|---|---|---|---|
Demand | 48 | 48 | 51 | 41 | 27 | 26 | 494 | |
STA | 21 | 25 | 23 | 16 | 13 | 21 | 252 | 13.44 |
STD | 28 | 23 | 23 | 25 | 14 | 5 | 242 | |
PSO | ∑ | Delay [min] | ||||||
Demand | 54 | 47 | 54 | 43 | 28 | 29 | 509 | |
STA | 23 | 24 | 29 | 17 | 12 | 22 | 254 | 12.09 |
STD | 31 | 23 | 25 | 26 | 16 | 7 | 255 |
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Reitmann, S.; Schultz, M. An Adaptive Framework for Optimization and Prediction of Air Traffic Management (Sub-)Systems with Machine Learning. Aerospace 2022, 9, 77. https://doi.org/10.3390/aerospace9020077
Reitmann S, Schultz M. An Adaptive Framework for Optimization and Prediction of Air Traffic Management (Sub-)Systems with Machine Learning. Aerospace. 2022; 9(2):77. https://doi.org/10.3390/aerospace9020077
Chicago/Turabian StyleReitmann, Stefan, and Michael Schultz. 2022. "An Adaptive Framework for Optimization and Prediction of Air Traffic Management (Sub-)Systems with Machine Learning" Aerospace 9, no. 2: 77. https://doi.org/10.3390/aerospace9020077
APA StyleReitmann, S., & Schultz, M. (2022). An Adaptive Framework for Optimization and Prediction of Air Traffic Management (Sub-)Systems with Machine Learning. Aerospace, 9(2), 77. https://doi.org/10.3390/aerospace9020077