Multilevel allocation modes — allocator control policies to share tasks between human and computer
Systems Analysis Modelling Simulation
Fault-resilient sensing in wireless sensor networks
Computer Communications
Developing cooperation mechanism for multi-agent systems with Petri nets
Engineering Applications of Artificial Intelligence
A reinforced iterative formalism to learn from human errors and uncertainty
Engineering Applications of Artificial Intelligence
Towards autonomic computing systems
Engineering Applications of Artificial Intelligence
Autonomic fault mitigation in embedded systems
Engineering Applications of Artificial Intelligence
On the principle of design of resilient systems-application to enterprise information systems
Enterprise Information Systems - Resilient Enterprise Information Systems
Measurement of resilience and its application to enterprise information systems
Enterprise Information Systems - Resilient Enterprise Information Systems
Human-error-based design of barriers and analysis of their uses
Cognition, Technology and Work - Special Issue in Honor of E. Hollnagel
Principles of adjustable autonomy: a framework for resilient human–machine cooperation
Cognition, Technology and Work
Information Sciences: an International Journal
Enabling fault resilience for web services
Computer Communications
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This paper proposes a functional architecture to learn from resilience. First, it defines the concept of resilience applied to Human-Machine System (HMS) in terms of safety management for perturbations and proposes some indicators to assess this resilience. Local and global indicators for evaluating human-machine resilience are used for several criteria. A multi-criteria resilience approach is then developed in order to monitor the evolution of local and global resilience. The resilience indicators are the possible inputs of a learning system that is capable of producing several outputs, such as predictions of the possible evolutions of the system's resilience and possible alternatives for human operators to control resilience. Our system has a feedback-feedforward architecture and is capable of learning from the resilience indicators. A practical example is explained in detail to illustrate the feasibility of such prediction.