John Cabot University ScholarShip
ScholarShip is the digital repository at John Cabot University. It provides an online space designed to archive, organize, preserve, and make accessible the digital scholarship faculty and students produce, showcasing the accomplishments of the University’s scholarly community.
Featured Items
Recent Submissions
Publication Blending Digital and Physical Experiences in Luxury Wine Hospitality: An Experiential Approach to Technology Integration(2025)Purpose – This study explores luxury wine hospitality by considering physical activities and activities created by integrating the physical domain with digital technology. In doing so, it aims to identify the different types of wine tourism-related luxury experiences and build a framework for interpreting hybrid luxury experiences in wine hospitality in the digital era. Design/methodology/approach – An explorative mixed-methods approach was adopted to investigate types of luxury wine hospitality using cluster analysis and in-depth interviews with producers of wines with controlled and guaranteed designation of origin in Italy’s Sangiovese area. Findings – This study presents a framework for understanding hybrid digital and physical experiences in wine hospitality by examining the core components of luxury experiences. We identify six types of luxury experiences in wine hospitality that combine a physical experiential component with varying degrees of integration with digital technologies. Practical implications – Our findings provide wine businesses operating in hospitality within the luxury segment with a useful tool for optimising the integration of digital technology into physical experiences to add value to visitors’ activities and highlight the importance of digital skills for wineries that organise luxury experiences. Originality/value – This study systematises the integration of digital technologies into physical activities related to wine hospitality. It presents a hybrid physical–digital analytical framework that adopts an experiential outline of the strategic design of wine hospitality businesses.Publication Israele oggi(2025)Publication Cinema(2023)Publication Novel Operator-Centric Digital Technologies for a Sustainable Industrial Workplace(2025)Industry 4.0 technologies are revolutionising industrial workplaces by advancing system and worker health management, enhancing Human-Machine Interaction, and enabling flexible manufacturing solutions. These innovations, underpinned by digital technologies, have their roots in predictive maintenance, reconfigurable and collaborative robotic systems, and AI-driven Human-Machine Interfaces, which are key enablers in creating sustainable, efficient, and adaptable production environments. Predictive maintenance empowers production systems to become self-aware, self-predictive, self-configuring, and self-maintaining (Zonta et al., 2020). By equipping machinery with sensors that continuously monitor their condition, it is possible to detect early signs of faults, identify the specific type of fault, and predict the Remaining Useful Life (RUL) of equipment (Jardine, Lin & Banjevic, 2006). This proactive approach minimises downtime, optimises machinery longevity, and enhances overall efficiency. The collection of data from re- configurable manipulation systems is crucial in this context, as it allows for the training, validation, and testing of data-driven approaches for diagnostics and prognostics in highly dynamic environments. Integrating robotic manipulators with automatic production lines is crucial for achieving this flexibility, and deployability and reconfigurability are key enabling factors. Cable-driven Parallel Robots (CDPRs) offer a promising solution for reconfigurable and they have been proposed for various applications, including assisted or automated assembly (Pott, Meyer & Verl, 2010), high-rack warehouse storage and retrieval (Bruckmann et al., 2012), and palletising tasks (Marchesini, 2023). Optimising the performance of CDPRs involves selecting the appropriate sensors for calibration, estimation, or control, as small sensor errors can be amplified by the robot’s transmission chain and control algorithms, leading to performance issues (Idà, Merlet & Carricato, 2019), (Gabaldo, Idà & Carricato, 2023). Digital prototyping tools dedicated to optimising the robot’s mechatronic architecture—its geometry, inertia components, sensors, overall size, and installed power—are essential for enhancing the industrial involvement of CDPRs. These tools contribute to improved sustainability in reconfigurable automation, achieving levels of efficiency not possible with current solutions. As automation becomes more prevalent, Human-Machine Interaction (HMI) become of interest, as understanding the factors that influence collaborative task quality and operator well-being is essential (Ayaz et al., 2012; Krugh & Mears, 2018). Automation changes human roles in complex ways, requiring a deeper understanding of human behaviour and environmental factors. Mental Workload (MWL), defined as the mental effort required to perform tasks, has been identified as a critical factor affecting productivity and task performance (Pacaux-Lemoine et al., 2022). The research underscores the importance of designing intelligent manufacturing systems that not only support human operators but also effectively manage MWL, thereby optimising working conditions. Addressing issues such as automation complacency and Out- Of-The-Loop (OOTL) performance is essential for improving working conditions through AI-enhanced human-machine collaboration. Particularly, when dealing with collaborative robots, techniques such as kinesthetic teaching, where a human guides the robot to perform tasks, have been effective in addressing kinematic discrepancies (Billard et al., 2008). However, there is a growing need for more advanced human-robot interfaces that enable bidirectional information exchange during manual guidance. Technologies like motion capture systems, which track human kinematics, and haptic devices, which measure grip strength, are essential for enhancing this interaction (Häring, Bee & André, 2012; Walker, Zink & Mutschler, 2010). Additionally, surface electromyography (sEMG) has emerged as a valuable tool, providing real-time data that, when combined with machine learning and probabilistic modelling, enhances programming by demonstration for collaborative robots (Meattini et al., 2018). The integration of these technologies facilitates more intuitive and effective human-robot collaboration, ultimately boosting productivity and work performance. The paper describes some aspects of novel digital technologies developed in one of the PNRR PE 11 Made in Italy Circolare e Sostenibile (MICS) projects, to be integrated for the development of self-sustaining production systems, enhancing human-machine collaboration, and enabling the deployment of flexible, reconfigurable robotic solutions. These advancements are crucial for meeting the evolving demands of modern manufacturing, ensuring sustainability, and optimising overall system efficiency and performance. Section 1 deals with the Predictive maintenance aspect of the project, while Section 2 with reconfigurable robotic systems. Section 3 introduces the studied HMI Technologies, and Section 4 focuses on collaborative robots programming. In the end, the project’s expected outcomes are highlighted.Publication Brunello Cucinelli’s Humanistic Capitalism: Notes on the Relationship Between Business and Humanities(2025)What is and what can the relationship between business and humanities be? Can humanistic knowledge connect with and contribute to managerial development today? This paper will attempt to understand whether this might be the case and how.
Communities in JCU ScholarShip
Select a community to browse its collections.