In the NICo (Next Generation Intelligent Cockpit) project, the concept and architecture for a highly automated cockpit of the future is being developed and investigated within the scope of a number of simulator studies in the cockpit simulator GECO (Generic Experimental Cockpit) and the full-motion simulator AVES (Air Vehicle Simulator). Selected NICo systems will be demonstrated through flight tests in the DLR research aircraft ISTAR (In-flight Systems and Technology Airborne Research).
In the NICo project, future single-pilot operations, meaning flights with only one pilot on the aircraft, are being investigated and a new virtual co-pilot, partly based on artificial intelligence (AI), is being developed. NICo also considers the new possibilities which are emerging as a result of the rapidly increasing interconnection of the aircraft with other traffic participants as well as with air traffic control (ATC) and the airline operation centre. The possibility of a remote co-pilot, who monitors the flight from a ground position and, if necessary, takes control of the aircraft, is also being investigated. In the short term, the research results should also contribute towards a reduced workload and increased safety in today's two-pilot operations (multi-pilot operations).
Future systems and procedures will have a major influence on the current operation methods in the cockpit and on the ground. NICo will therefore also address the resulting impact on pilots and remote co-pilots. The resultant amended requirement profile for future pilots will also be investigated.
Cockpit simulator GECO (left) and full motion simulator AVES (right)
Challenges arising through single-pilot operations
For some time now, single-pilot operations has been a familiar term, particularly in commercial and military aviation. Single-pilot operations place exceptional demands on the pilots. Increased workloads, higher traffic densities, the integration of other traffic participants into the airspace or an increasing danger resulting from weather phenomena necessitate more extensive pilot support and a more intensive networking of the aircraft with its surroundings. Through concepts such as an intelligent Virtual Co-Pilot and a remote co-pilot, this necessary enhanced support can be realised. Additional, coordinated assistance functions can reduce the strain on pilots, thereby significantly increasing their performance and, as a result, the safety of the flight in combination with automation. An additional challenge is error management, which currently places the highest demands on the crew in the two-man cockpit (multi-pilot operations). In future single-pilot operations, it is essential to ensure that system errors continue to be processed both quickly and safely and that the best-possible decisions are taken in order to prevent flight safety from being endangered at any time.
In addition to internal factors, such as possible system errors in the aircraft, pilots must also take into account the external hazard factors for the planned flight when making decisions. This begins with the current and future weather conditions (thunderstorms, wake vortices, icing) and extends across difficult terrain and high traffic density in the air as well as demanding take-off and landing conditions.
Support through a virtual co-pilot
For the support and relief of the pilots, a Virtual Co-Pilot is being developed within NICo on the basis of artificial intelligence. The interaction of the pilot with the Virtual Co-Pilot must be as simple as possible. Future functions of the Virtual Co-Pilot must not only be intuitively operable; their behaviour must also be understandable and comprehensible for the pilot.
The NICo research work into future cockpit functions for a Virtual Co-Pilot will focus on the interface to the pilot and on automated functions for error management and the mitigation of emergency situations.
The error analysis and diagnostic capabilities of the Virtual Co-Pilot also provide the foundation for improved human-machine interaction in the case of errors in current multi-pilot operations. It is of enormous interest to find better solutions for complex error cases, in particular for errors which lead to numerous subsequent errors. Currently, pilots would be flooded with an extremely high number of error messages in such a case. For this reason, a system is to be developed which performs a consolidated system-error diagnosis and focuses on the remaining capabilities of the aircraft when displaying the errors. On the basis of these remaining capabilities, the Virtual Co-Pilot should then support the pilot(s) in making decisions, thereby taking into account boundary conditions such as weather and traffic circumstances. In order to make future automatic functions resilient to system errors (particularly sensor errors), it should also be capable of providing substitute values from the remaining sensors in the event of failure of individual sensors (analytical redundancy). In this context, the monitoring of the air data systems plays a particularly important role. Due to external environmental conditions (icing, congestion), air data measurements are more susceptible and have led to serious incidents in aviation in the past.
Support through a remote co-pilot
A further possibility for supporting the pilots is the Remote Co-Pilot concept. In the NICo project, this special type of ground-based support is being researched in parallel with the virtual co-pilot.
Selected functions which have been identified as being particularly important and helpful for remote-pilot operations will be implemented as prototypes. The helpful functions will not only be developed for single-pilot operations in the long term but should also reduce the workload in current two-man cockpits. The use of a Remote Co-Pilot requires a re-thinking of the classic cockpit layout in the aircraft as well as the consideration of the necessary control station for the operator on the ground. The research into future human-machine interfaces and the development of optimised procedures form the focus.
One Remote Co-Pilot will be responsible for several single-pilot aircraft simultaneously. The remote-pilot centre will provide ground support for several aircraft. Questions regarding the optimal design of the centre, transfers of aircraft between the pilots, and emergency procedures will be addressed in NICo. Due to the physical separation between the pilots on the aircraft and on the ground, secure data-link communication is of crucial importance. Corresponding system requirements and safety assessments are being carried out. As the acquisition and exchange of information via data links between aircraft and ground - and also between several aircraft - are core components of the concepts in NICo, additional aspects of data security are also being considered.
The overall pilot-machine system and the requirements for pilots
NICo is intended to increase the performance of the overall pilot-machine system. For this purpose, the limits of human performance, the so-called "human performance envelope", are being addressed, whilst the acceptance of a Virtual Co-Pilot and/or the interaction of pilots and artificial intelligence in the cockpit is being considered and increased by means of suitable interaction mechanisms ("explainable AI").
The concepts predicted for NICo on the basis of current knowledge have a direct impact on the career development of a pilot. The "captain and first-officer relationship" will be dissolved and pilots will immediately be given full responsibility as single pilots. As a result, the requirements for the selection of suitable candidates will change. On the basis of surveys and simulator studies, the amended requirements profile for future pilots who will be working with the Virtual Co-Pilot or the Remote Co-Pilot will be defined.
During the course of NICo, several simulation campaigns with increasing complexity are planned in collaboration with professional pilots. Selected systems will then be demonstrated in flight tests with the ISTAR.
Institute of Flight Guidance (Coordinator)
Institute of Flight Systems
Institute of Aerospace Medicine
Institute of Communications and Navigation
Institute of Atmospheric Physics
Flight Experiments facility