Patent Application
20180285782
This application claims the benefit of priority of European Patent Application No. 17382152.1, filed Mar. 28, 2017, entitled “Computer-Implemented Method and System for Managing Passenger Information”, which is incorporated herein by reference in its entirety.
The present disclosure is in the field of telecommunication involving flight passengers. In particular, the present disclosure relates to a system and a method that enable collaborative exchanging of information between passengers and an Airline Operation Center (AOC) using System Wide Information Management (SWIM) infrastructure.
Currently, it is observed that there is no real-time exchange of information between passengers and airlines. Enabling access to up-to-date information between passengers and airlines can provide benefits to all parties.
An Air Traffic Management (ATM) system is mainly focused on obtaining maximum information from aircraft in flight to ensure safe operations while at the same time reducing costs and environmental impact. At present, passengers cannot provide airlines with data that could help their business. On one hand, this often results in ineffective assistance to passengers because airlines are unaware of issues where passengers need assistance from airlines. On the other hand, valuable information provided by passengers may serve to enhance airline performance, and, eventually, ATM operations.
Particularly, reducing turnaround-time operations is important to the smooth and effective management of airlines and airports. This process can be improved by using passengers' location information and intent. A passenger who is running late to board a flight may cause a flight delay. The turnaround time of the flight is, therefore, significantly increased and can lead to an associated knock-on effect with respect to impacting simultaneous operations at the same airport, upcoming operations at a destination airport, and subsequent flights operated with the same aircraft. The turnaround time is the time during which the aircraft must remain parked at the gate between two consecutive flights. An increase in the time it takes for an aircraft to depart from a gate between flights at an airport may result in increased airport charges and, for a variety of reasons, reduced profits for the airline.
A passenger may arrive late to the gate when a passenger is present at the airport, but may be unaware that the boarding for his flight has already begun. Thus, the passenger may not head towards the boarding area on time, which may result in the flight being delayed. Although the boarding crew may use the airport public address (PA) system to announce boarding and final calls for boarding a flight, the passenger may not hear or may not respond to these announcements. As a result, the passenger may miss the flight or may cause a departure delay. A similar situation occurs in case of connecting flights. Thus, it seems that existing boarding systems do not provide sufficient communication between passengers and airlines to improve the boarding process, reduce delays and/or decrease the likelihood of missing flights.
Conversely, when an airline expects deviations from a schedule (e.g., when a flight is being cancelled or delayed) proper assistance of passengers should be offered. Nowadays, passengers need to request assistance (re-routing, accommodation, alternative airport, etc.) themselves at the check-in counter or boarding gate and may have to wait a long time before receiving such assistance.
A need thus exists for updating and exchanging available data related to the flight status according to an actual passenger location through a collaborative communication channel. By doing so, enhanced assistance may be provided to passengers to help them in case of delays, missed connections, missed flights and the like, while ATM may increase efficiency of its airport operations.
The illustrative embodiments of the present disclosure provide a computer-implemented method for managing passenger information. Communication between an electronic device of a user and an airline data server is established. The user is identified as a passenger for a departing flight at an airport. Flight status information associated with the passenger is retrieved with the airline data server. The flight status information comprises a departure time and a boarding gate. Passenger location information is retrieved with the electronic device. An estimated time for the passenger to reach the boarding gate is computed based on the passenger location information and the flight status information. A probability of the passenger missing the flight is computed based on the estimated time for the passenger to reach the boarding gate and the flight status information. A notification is produced according to the computed probability.
The illustrative embodiments are also drawn to a system for managing passenger information comprising a communication unit and a processing unit. The communication unit is configured to establish communication between an electronic device of a user and an airline data server and to identify the user as a passenger for a departing flight at an airport. The communication unit is further configured to request the airline data server to retrieve flight status information associated with the passenger. The flight status information comprises a departure time and a boarding gate. The communication unit is further configured to request the electronic device to retrieve passenger location information. The processing unit is configured to compute an estimated time for the passenger to reach the boarding gate based on the passenger location information and the flight status information and to compute a probability of the passenger missing the departing flight based on the flight status information and the estimated time for the passenger to reach the boarding gate. The processing unit is further configured to produce a notification according to the computed probability and to instruct the communication unit to send the notification to the electronic device.
The illustrative embodiments of the present disclosure also provide a computer program product for managing passenger information. The computer program product comprises computer code instructions stored on a tangible computer readable storage medium. When executed by a processor, the computer code instructions cause the processor to perform the method of establishing communication between an electronic device of a user and an airline data server, identifying the user as a passenger for a departing flight at an airport, retrieving flight status information associated with the passenger with the airline data server, the flight status information comprising a departure time and a boarding gate, retrieving passenger location information with the electronic device, computing an estimated time for the passenger to reach the boarding gate based on the passenger location information and the flight status information, computing a probability of the passenger missing the flight based on the estimated time for the passenger to reach the boarding gate and the flight status information, and producing a notification according to the computed probability.
The features and functions can be achieved independently in various embodiments of the present disclosure or may be combined in yet other embodiments in which further details can be seen with reference to the following description and drawings.
The novel features believed characteristic of the illustrative embodiments are set forth in the appended claims. The illustrative embodiments, however, as well as a preferred mode of use, further objectives and features thereof, will best be understood by reference to the following detailed description of an illustrative embodiment of the present disclosure when read in conjunction with the accompanying drawings, wherein:
The different illustrative embodiments recognize and take into account a number of different considerations.
According to the identified shortcomings, it would be desirable to develop techniques that address at least some of the issues discussed above. In particular, increasing communication between passengers and airlines would result in improvements to passenger assistance and would enhance ATM operations.
It would be desirable to provide passengers with an estimate as to whether they will reach their boarding gate on time via their electronic devices based on their location and up-to-date reliable information regarding the departure time of their flights.
It would be desirable to use information obtained from passengers' electronic devices to increase the efficiency of airline and ATM operations.
It would be desirable to prevent interactions by untrusted sources when accessing ATM-related information.
To achieve one or more of these goals, the present disclosure makes use of AOC access to SWIM. SWIM includes standards, infrastructure and governance enabling the management and exchange of ATM related information.
ATM related information can be accessible by stakeholders via SWIM (especially in the future Trajectory Based Operations [TBO] environment), for instance: aircraft, airports, air traffic controllers (ATCo) and air navigation service providers (ANSP), airline operation centers, military operation centers, flow management centers and weather service providers. However, use of passenger data from passengers is presently left out (i.e., passengers are not considered as active actors).
In sum, several advantages can be obtained from the present disclosure. Customized and updated information about flights and connections status may be provided to passengers via notifications to their electronic devices. Efficiency may be also improved by estimating the likelihood that a passenger will miss a flight or connection. This may also help in reducing delays, which is an important concern for airlines. To that end, a collaborative communication channel can be established to share information among electronic devices of passengers, AOC and SWIM infrastructure.
The proposed techniques disclosed herein may enable downlink and uplink of tailored information from and to passengers' electronic devices as illustrated by the following embodiments.
Prior to offering information to a user, the user must be correctly identified as a passenger. Since airlines ordinarily issue flight tickets that relate passenger data and a corresponding itinerary, this document may serve to identify a passenger. The flight ticket normally includes several fields: issuing airline, flight and date that the ticket is valid for, booking reference, E-ticket number, passenger name, etc. It may suffice with some of these data fields to identify a person as a valid passenger and to provide accessibility to additional sources of updated information. In any event, access should be limited for security reasons and is provided through gateways and interfaces. Direct access to SWIM is only permitted for stakeholders.
The event that determines the passenger intent to board is the check-in. Check-in status is also of high value to assess the likelihood of missing a flight. This information, in conjunction with that included in the flight ticket, can be exploited by airlines to provide accurate measures of this likelihood.
Turning to
A passenger using his electronic device 102 may communicate with the system 100. The passenger electronic device 102 may be a desktop computer, laptop computer, tablet, wearable device, cell phone, or other network enabled device. Geolocation is usually available in the electronic device 102. The electronic device 102 may also have a software application installed therein to implement operations needed to enable communication with the system 100 in order to receive and display updated information related to a passenger's itinerary, but also to make available relevant information to SWIM stakeholders. To that purpose, the electronic device 102 connects to a communication unit 104 of the system 100.
The processing unit 106 of the system 100 then checks the identity of the passenger prior to establishing communication with other external entities to gather information. The system 100 also requests passenger location. Upon a valid identification, the system 100 retrieves relevant information including flight status from several sources. A customized notification can be generated by the system 100 according to passenger current situation and updated status of the flight. In this manner, the communication unit 104 of the system 100 connects to an airline data server 120 and obtains updated information regarding the itinerary of the passenger to be collected in data storage unit 108. The itinerary may include the passenger name or other identifying information, the time and location of updated key events including aircraft boarding, departure, landing, and de-boarding, as well as itinerary changes requested by the passenger and those caused by airline and air-traffic events (e.g., delays, diversions, and cancelations).
The airline data server 120 operates as a gateway to enable secure access for the system 100 to data available via AOC 122 and SWIM interface 130. SWIM interface 130 receives information from numerous ATM stakeholders, including one or more of ANSP/ATCo 136, flow management center 132, weather forecast provider 134, airport and handling system 138, etc. To ensure a safe exchange of information, the system 100 and the airline data server 120 may implement additional security measures (e.g., SSH Keys, firewalls, VPNs, SSL/TLS encryption, etc.). Thus, relevant information can be offered to passengers via the system 100 including: planned schedule, real-time itinerary modifications, estimated delays, updated flight/connection status, fleet status and even data generated by the aircraft on which the passenger is scheduled to fly. On the other hand, a passenger with his electronic device 102 may provide additional information to the system 100 for AOC 122 or SWIM interface 130. This scheme assures a proper security protection.
In a first aspect, the system 100 generates a customized notification to be sent to the electronic device 102. The notification may include likelihood of missing a flight/connection in view of updated flight information (e.g., updated flight delay information) and current passenger location. To do so, the system 100 implements an algorithm to combine information coming from passengers, AOC 122 and SWIM interface 130. Several calculations are performed to predict and estimate flight delays according to an average delay of a selected airport (available through SWIM interface 130), status of a current flight (available through AOC 122), status of remaining flights of the same airline (available through AOC 122), and other passengers' locations (available through passengers' electronic devices 102). The system 100 may also have access to historical data via storage 108 to improve accuracy using the previous estimations of flight delays, missed flights and passenger connections.
Up to this point, the system 100 has the capability of offering information to passenger. Conversely, in a second aspect, the system 100 also provides for the capability of making passengers' information available to SWIM and AOC 122. This other feature aids in coordinating airport services and in reducing turnaround times, which may improve overall performance of airlines and/or airports.
Turning to
In general, according to the present teachings numerous functionalities and benefits may be offered to all parties including airlines, ATM, airports and passengers. For instance, airlines can establish an improved relationship with customers since, for example, passengers may not need to report to a customer service counter when missing a flight or connection. Connections and flight departures may be improved based on passengers' status (e.g., boarding can be closed when some passengers acknowledge that they are going to miss the flight/connection). In addition, fleet management may be improved due to the ability of re-organizing connections and flight departures using the combination of boarding/in-transit passengers' data, average airport delay and own fleet status.
Regarding ATM, departure delays can be reduced due to more accurate estimates of passengers' time to reach the gate. Thus, fewer time and trajectory deviations with respect to the planned operations can be achieved. Coordination of airport services is enhanced and the turnaround time is reduced.
As to airports, several advantages can be obtained. Resources may be managed more efficiently due to greater adherence to flight schedules (by meeting or exceeding expected turnaround times), reduced modifications to airport gate allocations, or improved airport slots management.
Lastly, passengers may obtain real-time knowledge about flight status or connection status, which allows them the capability of making immediate decisions with respect to schedule adjustments. In practice, customer experience is improved due to the involvement of the passenger in updating or modifying the passenger itinerary and enhancing the ability to accommodate passenger preferences in case of a missed flight/connection. Another advantage is the capability of informing the airline in case of loss of a certain flight or connection. This may result in offering an alternative solution that fits a passenger's needs. It may be advisable to require an acknowledgment from the passenger to proceed with the alternative solution.
Now, referring back to
In view of the diverse sources of information, it is an aspect of the present disclosure to provide a system 100 that may continuously receive, process and store SWIM information coming from all stakeholders, not only the flights corresponding to the airline that deploys the service. This also helps to adjust calculations and refine predictions of a passenger missing a flight. Below, a brief description of several operations performed by some of the elements of
The communication unit 104 of the system 100 may collect information from SWIM infrastructure related to inbound/outbound traffic from a specific airport, handling services, estimated time of arrival (ETA) from a considered flight, status of the actual traffic, weather information, congestion information (e.g., average delay, likelihood of holding, etc.). This information is combined with information from AOC 122 and an estimate of the passenger missing the flight is computed. The system 100 also shares the main indicators that characterize the actual operations. The processing unit 106 of the system 100 communicates with its data storage unit 108 and searches for historical data to apply data mining operations to obtain the most probable average delay according to the series of flights recorded over a long period of time. By doing so, the processing unit 106 may correct or adjust an estimated delay previously computed. Then, the estimated delay for the flight is correlated with the passenger itinerary. If there is no delay, no alert is included in the notification 210 sent to the passenger electronic device 102. If there is a delay, but the itinerary is not affected (e.g., no risk of missing a connection), a warning is included in the notification 210. If the estimated delay impacts the current itinerary according to the actual passenger location, different alternatives may be offered to be included in the notification 210 sent to the passenger electronic device 102. Such alternatives shared with passengers should be issued in coordination with the AOC 122 which manages both passenger information (flight ticket) and fleet status. In this manner, the electronic device 102 enables the passenger to select among the different alternatives and to communicate a selection in advance to re-arrange the itinerary.
Turning to
The process begins by establishing communication between a user's electronic device 102 and an airline data server 120 (operation 302).
After communication is established, the next step is identifying whether the user is a valid passenger for a departing flight (operation 304). Otherwise, the airline data server 120 does not grant access to the electronic device 102.
When the user is a valid passenger, flight status information associated with the passenger is retrieved via the airline data server 120 (operation 306). The flight status information includes at least departure time and boarding gate. This flight status information can be obtained via AOC 122 and SWIM infrastructure as already depicted in
Then, according to the method, passenger location information is obtained from the electronic device 102 (operation 308). The passenger may provide his approximate location manually as an input. Alternatively, his electronic device 102 may automatically provide the location via GPS or triangulation of signal strength among other suitable techniques.
In addition to the location, the passenger may provide additional information related to the way of transportation (e.g., outside the airport: by taxi, bus, underground, train; at the airport: on foot, by golf cart, etc.). This may serve to better estimate a time to reach the gate.
An estimated time to get to the boarding gate at the airport can be computed. A probability of the passenger missing the departing flight may be then computed. The probability is calculated using at least the passenger location, flight status information and the estimate time for the passenger to reach the boarding gate at the airport (operation 310).
A notification 210 is sent to the electronic device 102 of the passenger based on the computed probability (operation 312). The notification 210 may also contain specific information about the current status of the departing flight and a request for the passenger to confirm whether he is unable to board the flight with his electronic device 102 via an acknowledgment (ACK) 212 message. The acknowledgement may be received (operation 314), with the method terminating thereafter.
Particularly, the notification may be of different types: a boarding message, a delay message, a remaining time before boarding starts, a remaining time before boarding ends, a suggested route to the gate, a final call for boarding, or a missed flight alert, etc.
Turning to
A user wishes to obtain information of a departing flight via his electronic device 102. Firstly, the user needs to be correctly identified by the system 100. To do so, user identification information is sent by the electronic device 102 to the system 100. Then, the system 100 checks the user identification information by consulting the airline data server 120. If the user is a passenger of an upcoming departing flight (e.g., a flight departing within the next 24 hours or less), the user identification information is determined to be legitimate and the user is considered to be a valid passenger.
Next, the system 100 requests flight status information from the airline data server 120, which is provided from the airline data server 120 to the system 100, and then ultimately sent to the electronic device 102. Upon receiving flight status, the electronic device 102 sends location information (based on the position of the electronic device 102) to the system 100. The system 100 is able to estimate the time needed for the passenger to reach the designated boarding gate at the airport based on the location of the electronic device 102. Thus, the system 100, taking into account at least the departure time for the flight, is able to compute a probability of the passenger missing (or making) the flight, which is sent by the system 100 to the electronic device 102.
After receiving the probability at the electronic device 102, the passenger may respond by notifying (acknowledging) the system 100 that he will miss the flight. In exchange, system 100 may offer him proper assistance (e.g., hotel accommodation, rebooking on the next available flight, etc.). Furthermore, the system 100 can inform the airline data server 120 that the passenger will not show up in time (passenger missing flight information). The airline may benefit from an early notification of the passenger missing the flight and may close the boarding gate without delay. Thus, airlines and ATM can take advantage of reduced turnaround times. In sum, the management of handling resources at the airport can be made more efficient.
It is another aspect of the present disclosure to provide a computer program product (e.g., a computer-readable medium) that includes instructions in code for managing passenger information. These instructions, when loaded into a memory and executed by a processor, cause several steps to be performed. In particular, communication between an electronic device 102 of a user and an airline data server 120 is established. Next, the user is identified as a passenger of a departing flight by consulting AOC 122. Subsequently, updated flight status information is retrieved from the airline data server 120, including the departure time and the boarding gate assigned to the flight. Then, passenger location information is retrieved via the electronic device 102 of the passenger. Next, a probability of the passenger missing the flight is computed based on an estimated time for the passenger to reach the gate (using the location information) and the departure time of flight. The computed probability is displayed on the electronic device 102. In view of the computed probability, a notification is sent to the system 100 and then relayed to the airline data server 120.
As apparent from the present disclosure, establishing a bidirectional information flow provides an unprecedented capability, which enables many new features to SWIM stakeholders. Similarly, passengers can benefit from obtaining updated and reliable flight information without adversely impacting confidentiality, integrity or availability of resources of SWIM. Additional customized services can be offered to passengers by airlines using this scheme. These and other features, functions, and advantages that have been discussed can be achieved independently in various embodiments or may be combined in yet other embodiments.
| Number | Date | Country | Kind |
|---|---|---|---|
| 17382152.1 | Mar 2017 | EP | regional |
