Mapping Essential Competencies for Human-Robot Collaboration in Construction: A Sociotechnical Systems Perspective
Ebenezer Omoniyi Olukanni, Abiola Akanmu, Adedeji Afolabi, Houtan Jebelli
- Year
- 2024
- Citations
- 2
Abstract
This research-to-practice full paper identifies the essential competencies for human-robot collaboration in the construction industry through a sociotechnical systems theory perspective. The construction industry grapples with significant challenges, including a shortage of skilled workers, low productivity, efficiency, and safety issues that impede its progress and growth. The integration of robots into the construction industry presents a promising solution to address these issues, thereby necessitating collaboration between humans and robots in executing construction tasks. Despite the advantages and roles played by robotic automation, there have been scarce efforts to identify essential competencies required to prepare the current and future workforce for effective collaboration with robots in construction. This study fills this gap by identifying essential competencies in the form of knowledge, skills, and abilities necessary for successful human-robot collaboration in construction. Using the sociotechnical systems theory as a framework, a qualitative literature review was conducted to establish and correlate the constructs of sociotechnical systems theory and elements of human-robot collaboration. Content analysis was employed to identify the elements of sociotechnical systems theory, human-robot collaboration, and robot task applications in construction, leading to the identification of key competencies. The study reveals a set of competencies for effective human-robot collaboration, including twenty knowledge, ten skills, and twelve abilities essential for implementing human-robot collaboration in the construction industry. These findings offer valuable insights for designing training programs and developing guidelines to facilitate successful human-robot collaboration in the construction industry. The competency model unveiled in the study could be incorporated into construction engineering and management curricula, providing a foundation for developing training initiatives targeting the current workforce and preparing the future workforce for collaborative engagements with robots in the construction industry. Recognizing the specific knowledge, skills, and abilities needed for human-robot collaboration in construction is pivotal for enhancing the efficiency and success of robotics implementation in the industry. Integrating these competencies into educational curricula and professional development programs equips the workforce to adapt to technological advancements and positions the industry for sustainable growth and improved project outcomes.
Keywords
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