It is argued that training for human–AI teaming must remain fundamentally human-centric, preserving pilots’ adaptive expertise, situational awareness, and critical thinking while ensuring that AI systems remain compatible with human cognitive strengths and limitations.
Abstract
Human–AI teaming is rapidly emerging as a defining paradigm in next-generation aviation operations, reshaping pilot roles, altering cockpit task distribution, and challenging established assumptions regarding expertise, decision-making, and training. As artificial intelligence systems evolve from deterministic support tools into adaptive, autonomous teammates capable of perception, prediction, and intent-driven action, the aviation training ecosystem faces a suite of unprecedented challenges. These challenges extend beyond purely technical skills and encompass deeper questions of trust calibration, cognitive adaptation, workload redistribution, ethical responsibility, and sustained human performance. This paper examines the central training challenges associated with preparing pilots, instructors, and organisational systems for effective human–AI teaming across current and expected future aviation environments.First, the paper analyses the shifting cognitive and operational landscape introduced by AI-enabled systems, including adaptive automation, predictive analytics, natural-language interfaces, and mixed-initiative control architectures. Whilst these technologies promise enhanced situational awareness, reduced workload, and strengthened predictive safety nets, they simultaneously introduce risks such as automation complacency, algorithmic over-reliance, erosion of manual competencies, and emergent forms of mode confusion. Training organisations must therefore rethink curriculum design to cultivate appropriate levels of trust in AI agents while strengthening pilots’ abilities to monitor, interrogate, and, where necessary, override AI behaviour during uncertainty or system drift. Traditional training paradigms based on linear automation logic are insufficient to address the probabilistic and at times opaque behaviour of modern AI systems.Second, the paper explores the pedagogical complexities inherent in developing joint human–AI decision-making skills. Effective teaming requires robust communication transparency, alignment of mental models, and the formation of shared situational awareness between human operators and algorithmic agents. Yet many AI systems operate as “opaque teammates,” offering outputs without interpretive depth or explainable reasoning. Training must therefore introduce strategies for evaluating machine-generated recommendations, identifying algorithmic bias, integrating AI insights with experiential human judgement, and managing discrepancies between human and AI interpretations. Scenario-based training, explainable AI (XAI) tools, and structured failure-mode exploration are presented as essential approaches for mitigating these challenges.Third, organisational, regulatory, and standardisation constraints are evaluated. The absence of harmonised human–AI competency frameworks, variability in AI system behaviour across aircraft types, and ambiguities regarding accountability pose obstacles for both initial and recurrent training. A critical need exists for evidence-based human factors methodologies that define the skills required for pilots operating in mixed-initiative or partially autonomous environments. Emerging competency-based training and assessment (CBTA/EBT) methodologies offer a promising foundation but require expansion to incorporate AI teaming competencies, error management strategies, and resilience-building mechanisms.The paper argues that training for human–AI teaming must remain fundamentally human-centric, preserving pilots’ adaptive expertise, situational awareness, and critical thinking while ensuring that AI systems remain compatible with human cognitive strengths and limitations. It concludes by proposing an integrated training model to support safe, resilient, and ethically aligned human–AI cooperation in future aviation operations.
Future missions to the International Space Station, the Moon, and Mars will require teams to live and work in extreme environments, facing heavy workload, isolation, uncertainty, communication delays, and limited ground support. These conditions degrade sensing, perception, decision-making, and action. As machines are increasingly integrated into such missions, human-machine teams must adapt to maintain safety and performance under extreme conditions. This systematic review examines the state of research on human-machine teaming in space. Three databases—Engineering Village, IEEE Xplore, and Web of Science—were searched. Eight peer-reviewed articles met all inclusion criteria. They examined trust, explainability, performance, and communication. The key outcomes emphasize communication challenges, exacerbated by non-resilient teams. Trust and performance perceptions differ between novices in simulations and experts in operational settings. It is essential to calibrate trust in machine teammates, design workload-sensitive and context-aware transparency mechanisms, and develop communication protocols that support resilient human-machine team performance in space.
Unknown authors· Proceedings of the Human Fac...· 0 citations
Explainable artificial intelligence (X-AI) techniques aim to make the actions and decisions of autonomous systems understandable to humans interacting with these systems. In human–AI teams, explainability supports individual understanding and coordination, shared mental models, and collective decision-making among humans and AI agents. Research has shown that X-AI enhances trust in autonomous systems, improves human–AI team performance, and supports collaboration across domains including aviation, finance, healthcare, hospitality, and sports. However, X-AI technologies face difficult challenges, including a lack of transparency and interpretability due to complex underlying models, also known as the “black-box” nature of AI systems. These technologies also lack any universally accepted evaluation metrics and have limited generalizability across applications. One deficit in the X-AI literature is that most frameworks focus on individual-level outcomes, with limited attention to team-level processes. The current study conducted a systematic literature review adhering to PRISMA guidelines and the SALSA framework. This study introduces the Implementation-Design (I-D) framework that organizes X-AI approaches along two dimensions: implementation, ranging from visual to interactive approaches, and design, ranging from isolated explanations to workflow-integrated systems. This framework captures lower-level engagement, involving individual users, to higher-level understanding that is necessary for teams and collectives. Findings indicate that visual explanation approaches support user engagement, while interactive workflow approaches promote deeper understanding, appropriate reliance, and distributed cognition within human–AI teams. Implications highlight the need for team-oriented explainability grounded in shared mental models, transactive memory systems, and collaborative X-AI artifacts. Practical guidelines are included to support researchers and practitioners in selecting appropriate X-AI techniques based on their context and level of analysis. The I-D framework is offered as a conceptual organizing model to guide research and practice, and empirical validation is identified as a priority for future work.
John R. Turner, Hoda Parvaneh Shirazi, H. Kim et al.· Syst.· 0 citations
It is argued that agentic AI should be approached as a socio-technical design problem, where interfaces, oversight mechanisms, and evaluation practices are as critical as algorithms.
Timothy Merritt, Alejandro Jarabo-Peñas, Juan Bravo-Arrabal et al.· 0 citations
Artificial intelligence (AI) is transforming the global workforce, automating routine tasks, enhancing decision-making, and redefining job roles. This shift creates opportunities and uncertainties, demanding a reimagined approach to education. Traditional models, rooted in static curricula, fail to prepare learners for a dynamic, AI-driven landscape. This abstract proposes strategic learning pathways to foster adaptability, critical thinking, and human-AI collaboration, drawing from education, cognitive science, and workforce development. AI technologies like machine learning and robotics are reshaping industries, automating tasks like data entry while creating roles requiring AI oversight and creative problem-solving. The World Economic Forum (2023) estimates over 50% of jobs will need reskilling by 2030 due to AI disruptions. Traditional education, designed for predictable careers, struggles to keep pace, risking a skills gap that threatens economic stability. Current systems emphasize rote learning and specialized skills, ill-suited for an AI-augmented world. STEAM-focused curricula often neglect interdisciplinary thinking, emotional intelligence, and ethical reasoning, while unequal access to education exacerbates inequities. A shift toward agile, inclusive education is essential to prepare learners for uncertainty. We propose three pillars: Adaptive Competence: Prioritize cognitive flexibility and problem-solving through scenario-based, interdisciplinary learning; Human-AI Synergy: Train learners to leverage AI tools, understand biases, and apply human judgment; Lifelong Learning Ecosystems: Integrate micro-credentials and accessible platforms for continuous upskilling; Systemic changes—competency-based curricula, educator training, and public-private partnerships—can align education with workforce needs. While challenges like institutional resistance persist, these pathways empower resilient, inclusive learning, preparing individuals to thrive in an AI-driven future.
A. E. Adesina· Aminu Kano Academic Scholars...· 0 citations
Artificial intelligence is entering the workflow faster than most organizations are redesigning learning. This paper argues that the central L&D challenge is no longer individual AI literacy alone, but the collective capability of teams to reason, coordinate, challenge, remember, and improve with AI. An integrative review of peer-reviewed research and recent workforce studies is used to connect human-AI teaming, transactive memory, shared models, workplace learning, and capability development. The evidence is striking: 84% of executives expect regular human-AI collaboration within three years, yet only 26% of workers report being trained to collaborate effectively with AI; high-performing teams report higher AI use than other teams (78% versus 54%), but their advantage is also associated with trust, apprenticeship, agility, and human connection. The paper proposes the CYCLE framework: Clarify roles, Yield to evidence, Capture memory, Learn through correction, and Embed routines. It translates the framework into a practical operating model for L&D, including team simulations, decision-trace practices, peer challenge, AI debriefs, and measures of transfer at team level. The argument is deliberately human-centered: AI may accelerate access to knowledge, but collective capability develops only when people can question outputs, speak up, share judgment, and retain learning. The paper concludes with propositions and a field-research agenda for testing durable team capability over time.
Hemant Tale, Satwik P. M.· International journal of res...· 0 citations
Controlling multiple autonomous, uncrewed aircraft, or autonomous collaborative platforms (ACPs), during flight missions is a difficult multitasking effort. Due to the complexities and risks related to aircraft operations, it is imperative that the designs of emerging ACP management controls yield as few errors as possible during such missions. One way to achieve this is to examine, classify, and enumerate the types of errors that pilots make when flying missions with autonomous teammates. Here, we examine performance in a simulated piloting task in which individuals must direct four ACPs to eliminate ground targets while simultaneously piloting their own aircraft. We conducted structured failure analyses on different behavioral outcomes, integrating two different human factors taxonomies. The results of these analyses indicate that task failures were jointly attributable to cognitive capacity limits, configuration complexity, and ACP interface design.
Hailey Ramos, Taylor Curley, Megan B. Morris et al.· Proceedings of the Human Fac...· 0 citations
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