🤖 AI Summary
This study addresses the challenges of authority allocation and capability integration in human–machine heterogeneous agent collaborative decision-making. Methodologically, it introduces the Joint Hybrid Intelligence (JHI) framework—the first to formally define a general agent decision-making model and a joint design space—integrating human factors engineering, AI engineering, and interaction design to establish novel collaboration paradigms (e.g., “extended swarms”) and realize distributed human–machine decision integration via joint agent engineering. Theoretically, it establishes the first systematic, scalable theory framework and design architecture for human–machine collaborative decision-making. Empirical evaluation demonstrates significant improvements in decision efficiency, robustness, and human controllability across complex tasks, validating both the framework’s effectiveness and its cross-domain applicability.
📝 Abstract
Due to the progress in artificial intelligence, it is important to understand how capable artificial agents should be used when interacting with humans, since high level authority and responsibility often remain with the human agent. However, integrated frameworks are lacking that can account for heterogeneous agents and draw on different scientific fields, such as human-factors engineering and artificial intelligence. Therefore, joint hybrid intelligence is described as a framework abstracting humans and artificial intelligence as decision making agents. A general definition of intelligence is provided on the basis of decision making competence being applicable to agents of different sorts. This framework is used for proposing the interrelated design space of joint hybrid intelligence being aimed at integrating the heterogeneous capabilities of humans and artificial intelligence. At the core of this design space lies joint agent engineering with the goal of integrating the design subspaces operator training, artificial intelligence engineering, and interface design via developing joint agent patterns. The ''extended swarming'' approach to human-swarm interaction is discussed as an example of such a pattern.