Last data update: Aug 15, 2025. (Total: 49733 publications since 2009)
| Records 1-4 (of 4 Records) |
| Query Trace: Ragsdale T[original query] |
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| Industrial Robotics and the Future of Work
Howard J , Murashov V , Roth G , Wendt C , Carr J , Cheng M , Earnest S , Elliott KC , Haas E , Liang CJ , Petery G , Ragsdale J , Reid C , Spielholz P , Trout D , Srinivasan D . Am J Ind Med 2025
Starting in the 1970s with robots that were physically isolated from contact with their human co-workers, robots now collaborate with human workers towards a common task goal in a shared workspace. This type of robotic device represents a new era of workplace automation. Industrial robotics is rapidly evolving due to advances in sensor technology, artificial intelligence (AI), wireless communications, mechanical engineering, and materials science. While these new robotic devices are used mainly in manufacturing and warehousing, human-robot collaboration is now seen across multiple goods-producing and service-delivery industry sectors. Assessing and controlling the risks of human-robot collaboration is a critical challenge for occupational safety and health research and practice as industrial robotics becomes a pervasive feature of the future of work. Understanding the physical, psychosocial, work organization, and cybersecurity risks associated with the increasing use of robotic technologies is critical to ensuring the safe development and implementation of industrial robotics. This commentary provides a brief review of the uses of robotic technologies across selected industry sectors; the risks of current and future industrial robotic applications for worker and employer alike; strategies for integrating human-robot collaboration into a health and safety management system; and the role of robotic safety standards in the future of work. |
| Recovery from technostress: how to prevent psychosocial hazards that extend beyond the workplace
Ragsdale J . The Synergist 2024 35 (9)
Call it what you like-the digital era, Industry 4.0, or the fourth industrial revolution-but rapidly evolving technology continues to impact how people do their work. Robots have advanced from human-operated machines into collaborative autonomous robotic coworkers, or co-bots, that can stand in for workers in hazardous situations, take over repetitive work that contributes to fatigue, and improve efficiency. Artificial intelligence and algorithms help power these co-bots while also streamlining personnel management processes and simplifying the synthesis and visualization of high-volume organizational data. Digitalization of work and information and communication technologies (ICTs), such as email, video conferencing, and cloud-based collaboration tools, make it easier than ever for people to work from anywhere at any time, to the benefit of multinational enterprises and working parents alike. Despite these benefits, technology can introduce psychosocial hazards, too. Often more difficult to observe than physical hazards, psychosocial hazards are the detrimental psychological working conditions or stressors associated with the design, management, organization, and socioeconomic context of work. Introducing new technologies, like co-bots, AI, and ICTs, can sometimes worsen existing psychosocial hazards or create new ones, which can exacerbate workers' stress, challenge their ability to cope, and increase risks for poor health and well-being. |
| Lessons Learned from the Development and Demonstration of a PPE Inventory Monitoring System for US Hospitals
Haas EJ , Casey ML , Furek A , Aldrich K , Ragsdale T , Crosswy S , Moore SM . Health Secur 2021 19 (6) 582-591 An international system should be established to support personal protective equipment (PPE) inventory monitoring, particularly within the healthcare industry. In this article, the authors discuss the development and 15-week deployment of a proof-of-concept prototype that included the use of a Healthcare Trust Data Platform to secure and transmit PPE-related data. Seventy-eight hospitals participated, including 66 large hospital systems, 11 medium-sized hospital systems, and a single hospital. Hospitals reported near-daily inventory information for N95 respirators, surgical masks, and face shields, ultimately providing 159 different PPE model numbers. Researchers cross-checked the data to ensure the PPE could be accurately identified. In cases where the model number was inaccurately reported, researchers corrected the numbers whenever possible. Of the PPE model numbers reported, 74.2% were verified-60.5% of N95 respirators, 40.0% of face shields, and 84.0% of surgical masks. The authors discuss the need to standardize how PPE is reported, possible aspects of a PPE data standard, and standards groups who may assist with this effort. Having such PPE data standards would enable better communication across hospital systems and assist in emergency preparedness efforts during pandemics or natural disasters. |
| Human case of bubonic plague resulting from the bite of a wild Gunnison's prairie dog during translocation from a plague-endemic area
Melman SD , Ettestad PE , VinHatton ES , Ragsdale JM , Takacs N , Onischuk LM , Leonard PM , Master SS , Lucero VS , Kingry LC , Petersen JM . Zoonoses Public Health 2017 65 (1) e254-e258 Plague is a zoonotic disease (transmitted mainly by fleas and maintained in nature by rodents) that causes severe acute illness in humans. We present a human plague case who became infected by the bite of a wild Gunnison's prairie dog, and a good practical example of the One Health approach that resulted in a rapid public health response. The exposure occurred while the animal was being transported for relocation to a wildlife refuge after being trapped in a plague enzootic area. This is the first report of a human plague case resulting from the bite of a Gunnison's prairie dog. Additionally, we present an observation of a longer incubation period for plague in captive prairie dogs, leading to a recommendation for a longer quarantine period for prairie dogs during translocation efforts. |
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