Recent investments in automation and AI are reshaping the hospitality sector. Driven by social and economic forces affecting service delivery, these new technologies have transformed the labor that acts as the backbone to the industry-namely frontline service work performed by housekeepers, front desk staff, line cooks and others. We describe the context for recent technological adoption, with particular emphasis on algorithmic management applications. Through this work, we identify gaps in existing literature and highlight areas in need of further research in the domains of worker-centered technology development. Our analysis highlights how technologies such as algorithmic management shape roles and tasks in the high-touch service sector. We outline how harms produced through automation are often due to a lack of attention to non-management stakeholders. We then describe an opportunity space for researchers and practitioners to elicit worker participation at all stages of technology adoption, and offer methods for centering workers, increasing transparency, and accounting for the context of use through holistic implementation and training strategies. 
                        more » 
                        « less   
                    This content will become publicly available on July 4, 2026
                            
                            Working Together: Algorithmic Management and Peer Relationships in the Hospitality Industry
                        
                    
    
            Algorithmic management is transforming traditional face-to-face service sectors like hospitality. To understand this phenomenon, we conducted an interview study in a unionized, mid-sized urban hotel on the West Coast of the USA. Through this work, we examine how an algorithmic management (AM) platform mediates work in a housekeeping department. Our analysis highlights the effects of AM on social processes, revealing that despite careful configuration, the tool’s implementation still challenges traditional communication and coordination. This study contributes empirical evidence on AM impacts in a collaborative service environment, emphasizing the importance of organizational dynamics in AM design and implementation. We offer design opportunities for flexible workplace technologies that support, rather than frustrate, the relational aspects of service work. 
        more » 
        « less   
        
    
                            - Award ID(s):
- 2128954
- PAR ID:
- 10618218
- Publisher / Repository:
- ACM
- Date Published:
- ISBN:
- 9798400714856
- Page Range / eLocation ID:
- 3221 to 3234
- Subject(s) / Keyword(s):
- Human-centered computing HCI theory, concepts and models Empirical studies in collaborative and social computing
- Format(s):
- Medium: X
- Location:
- Madeira Portugal
- Sponsoring Org:
- National Science Foundation
More Like this
- 
            
- 
            Additive Manufacturing (AM) is a novel process that enables the manufacturing of complex geometries through layer-by-layer deposition of material. AM processes provide a stark contrast to traditional, subtractive manufacturing processes, which has resulted in the emergence of design for additive manufacturing (DfAM) to capitalize on AM’s capabilities. In order to support the increasing use of AM in engineering, it is important to shift from the traditional design for manufacturing and assembly mindset, towards integrating DfAM. To facilitate this, DfAM must be included in the engineering design curriculum in a manner that has the highest impact. While previous research has systematically organized DfAM concepts into process capability-based (opportunistic) and limitation-based (restrictive) considerations, limited research has been conducted on the impact of teaching DfAM on the student’s design process. This study investigates this interaction by comparing two DfAM educational interventions conducted at different points in the academic semester. The two versions are compared by evaluating the students’ perceived utility, change in self-efficacy, and the use of DfAM concepts in design. The results show that introducing DfAM early in the semester when students have little previous experience in AM resulted in the largest gains in students perceiving utility in learning about DfAM concepts and DfAM self-efficacy gains. Further, we see that this increase relates to greater application of opportunistic DfAM concepts in student design ideas in a DfAM challenge. However, no difference was seen in the application of restrictive DfAM concepts between the two interventions. These results can be used to guide the design and implementation of DfAM education.more » « less
- 
            Network function virtualization (NFV) offers the potential for both enhancing service delivery flexibility and reducing overall costs by virtualizing network functions that are traditionally implemented in dedicated hardware. However, the flexibility of NFV comes with considerable compromises since virtual machine carried functions could introduce significant performance overhead. In this paper, we present a novel high-performance framework called HYPER, which combines programmable hardware infrastructure and traditional software infrastructure in NFV to achieve both high performance and flexibility for supporting virtualized network functions (VNFs). In HYPER, we design a mediator layer to hide underlying infrastructure heterogeneity from the NFV orchestrator to simplify VNF management. In addition, we design a SLA-aware service chaining algorithm in HYPER to leverage the benefits of the hybrid infrastructure to fulfill both functional and performance requirements from service subscribers (or tenants). To optimize resource utilization efficiency, we also introduce a performance-aware VNF placement algorithm in HYPER, which accommodates both resource and performance requirements in placing VNFs. We implement HYPER in a testbed based on OpenStack and ONetCard. Experimental results show that HYPER reduces the forwarding latency of a service chain by 40% to 67% compared with data plane development kit -based implementation, while maintaining the flexibility of VNF management.more » « less
- 
            null (Ed.)Emulating the unique combination of structural, compositional, and functional gradation in natural materials is exceptionally challenging. Many natural structures have proved too complex or expensive to imitate using traditional processing techniques despite recent advances. Recent innovations within the field of additive manufacturing (AM) or 3D Printing (3DP) have shown the ability to create structures that have variations in material composition, structure, and performance, providing a new design-for-manufacturing platform for the imitation of natural materials. AM or 3DP techniques are capable of manufacturing structures that have significantly improved properties and functionality over what could be traditionally-produced, giving manufacturers an edge in their ability to realize components for highly-specialized applications in different industries. To this end, the present work reviews fundamental advances in the use of naturally-inspired design enabled through 3DP / AM, how these techniques can be further exploited to reach new application areas and the challenges that lie ahead for widespread implementation. An example of how these techniques can be applied towards a total hip arthroplasty application is provided to spur further innovation in this area.more » « less
- 
            Abstract Additive Manufacturing (AM) is a technology capable of producing designs that challenge those from traditional manufacturing methods. AM is of high interest for advanced capabilities such as leveraging free complexity and having the ability to manufacture multi-part products that are manufactured as a single assembled. By leveraging design heuristics for AM, the final design can be manufactured in a shorter timeframe with less material consumption while still maintaining the initial engineering goals of the design. Despite the promising potential of AM, there is a growing concern that designers are not utilizing the design heuristics that embody successful AM. When designers resort to using design heuristics for Traditional Manufacturing (TM) with the unintentional purpose of translating these heuristics to AM, they are not creating efficient designs for AM and are unable to reap the benefits of using AM. To remedy this problem, intervening early in the design process can help address any concerns regarding the use of AM design heuristics. This work explores the design heuristics that students use in creating designs in the context of TM and AM. Once the common design heuristics students use in their designs are identified, future studies will further investigate the specific features that these students are using to address them through early interventions. This work found that incorporating complex shapes and geometries and considering the minimum feature size are significant axioms for influencing the manufacturability of a design for both TM and AM.more » « less
 An official website of the United States government
An official website of the United States government 
				
			 
					 
					
