Human-computer Interaction Research: Future Directions that Matter

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Human-computer Interaction Research: Future Directions that Matter Kalle Lyytinen Weatherhead School of Management Case Western Reserve University Cleveland, OH, USA Abstract In this essay I briefly review the dominant perspective in HCI research and its underlying research questions as currently pursued in the information systems field (IS). I review its strengths and weaknesses and pinpoint that it is reaching a state of decreasing rate of returns due to significant changes in the computing environments and their use. Three emerging themes are noted to alleviate this challenge: 1) concern for environmental validity; 2) richer notions of cognition; and 3) growth and access to new sets of data. We suggest that these will shape the research in HCI in this decade and, if addressed properly will improve the relevance (and rigor) of the future research.

Human-computer Interaction Research: Future Directions that Matter Research on human computer interaction (HCI) dawned in the late seventies when computers moved from the back office to the organizational frontlines in the form of time-sharing systems and later on in the form of office productivity tools on personal computers (PC). Whilst the earliest topics focused on material features of computing like keyboard design or ergonomic factors affecting user efficiency (e.g. screen size) much of the research that followed and created HCI as a separate field focused on forms of computer interaction that enabled or impeded user behaviors due to availability of designed computing features (e.g. formats, query language constructs etc). Likewise, early HCI research on information systems field examined through the early so called Minnesota experiments questions of human computer interaction and task performance. While the bulk of this early research relied on experimental research approaches and adopted consequently simple stimulus-response models of user behaviors later HCI research has enriched the research with powerful general theories of human cognition and behaviors. In the 80 s and 90 s several general, powerful theories of human behavior were harnessed to explain human responses to computer use including theory of reasoned action, self efficacy, or habitualization (pick up your favorite). These theories have been largely validated, as expected, in this study context and we know now a great deal about critical predictors of adoption and effective use in the context of single system or tool used by an individual. Typically, explanations come in the form of a cognitive state (CS) like intention explaining IT use or adoption, or IT use, or a computing feature (more rarely) (like functionality) explaining cognitive state (intention to use). This research approach has offered ample avenues for strong and cumulative research. It relies on strong, general theories of human cognition and behavior, and comes with effective experimental designs and relatively well tested instrumentation adding the required rigor to the research process. As a result it has offered credible, theoretically founded and plausible results that have clear face and internal validity. It is also relatively coherent way of approaching issues related to human computer interaction and this had advanced cumulative learning in the community. Overall, it has advanced significantly our understanding of factors that can explain the likelihood of adopting a computer tool or continuing to use it. Despite these benefits the research paradigm has lately come increasingly a straitjacket for understanding and explaining current forms of computer use that is shifting away from the single user / single tool paradigm and the challenge of a user adopting or using for the first time a specific computer functionality. In contrast the current environment is characterized by the following key facets: 1) Nearly all workers in the work force use already several computer tools daily (Gaskin and Lyytinen 2010). So, the question is less and less about adopting or initiating a use process in a green-field. Rather it is a question of adapting, integrating and orchestrating

computer tools and capabilities in an already rich computer environment where questions of replacement, unlearning and adaptation dominate. 2) The form factors and functionality of computer tools is no more uniform and, but comes in a rich variety of capabilities, features and functions (Yoo 2010). The idea of device convergence and service convergence explains it all: the same computing function can be carried out across multiple devices at hand and the function itself can be offered by multiple types of tools. Thus, other factors than just functionality or ease of use may explain adoption or use like position in the task environment, specific use context, past learning, habitualization, or random effects. 3) The computer rich environments need to be understood- rather than as collection of independent tools to be adapted by users- as an evolving ecology of functionalities, which offer a set of affordances as created by users in their specific environmental niches (Jung and Lyytinen 2010). 4) There is less concern for adoption or single use, but how to improve and expand use processes across multiple tools in richly featured computing ecologies. 5) There is less concern for specific general interactions between certain set of use modalities (e.g. text v.s. graphics), but rather how rich combinations of such use modalities are created under specific circumstances and in contexts where multiple such interactions take place simultaneously. Due to this combinatorial explosion of use situations and their complexity there are decreasing returns from a static single tool single user approach to understand critical issues of HCI. While the capability of established theories to explain issues for what they are designed remains relatively high, the value of these theoretical predispositions in explaining how and why current users use computers has come inadequate. One challenge is that the current research model offers little as a way of explaining what human computer interactions means i.e. what people do with computers and why they do what they do. Second, the current model is relatively static in terms of types of uses and evolution of use behaviors and in explaining and analyzing what explains the evolution of human computer interaction across contexts. Clearly something different and complementary needs to be envisioned to understand and explain emerging patterns of computer use and human computer interaction. Next we offer three emerging themes, which may offer some avenues to improve our understanding these issues: 1) concern for environmental validity; 2) richer notions of cognition; and 3) growth and access to new sets of data. Environmental validity The first challenge is that we need to improve environmental validity of our explorations. Do the applied theories address or integrate key aspects of the human computer interaction with their proposed theoretical language and related analysis logics? To address this question we need to understand and take more seriously what the environment of computer use means, and how it is constituted. This concern needs to permeate both our theory building and our research designs. To address this challenge we need to analyze in more detail how user and use environments are constituted and how computer based, cognitive and material features interact and influence what people do with computers. We need to more carefully ask: what are the affordances that are

being enacted in the context of computer use? How do such sets of affordances constitute an ecology, and how it evolves as a system? How do these affordances relate to the changing IT capabilities and functionality? How are IT capabilities presented at the interface?; and how do IT capabilities and their representations interact, and affect the creation of affordances? Are there different ways of presenting IT capabilities and how do these relate to what people do with computers? How do simple and unusual contexts of interactions (pervasive, mobile) affect use processes and interaction? All studies addressing these questions will have to go beyond the currently dominating quest to explain computer adoption or use. Focus should be on learning to use computers differently, learning to assimilate new use behaviors, and the overall effectiveness of use in a specific task environment. Richer notion of cognition Classic cognitive models and theories related to computer use apply either state oriented representations of beliefs or attitudes guiding user behaviors, or they represent user as yet another computer with memory, processing unit and a computational process. Use happens in the head and associated cognition is confined into the realm of inaccessible, latent abstract states in the mind. While such approaches are useful in explaining or predicting certain aspects of use process, they are inherently limited to the mentalistic, and Cartesian views of use. Yet, in the increasingly complex, environmentally rich, convivial and opportunistic computer use the cognitive processes associated with HCI (mainly seeing and writing) are becoming intertwined with the physical, haptic and audio based interactions triggering new experiences and emotions (Yoo 2010). Much of such behavior can also be traced now by sensory data. Therefore theories and explanations of human computer interactions need to seek understand better interactions between physical, motoric and cognitive levels and also how the virtual real (what you see while you interact with the computer) and the real real (i.e. what happens in the other parts of the environment) become intermingled during the process of use. This is of paramount in studying e.g. pervasive or mobile applications where the external world conditions and affects the use processes to a larger extent. Another issue is that computers are not anymore just reactive devices that are optimized to respond to user requests (e.g. as in query processing), but more proactive devices that affect the user environment based on specific models or conditions that represent the very use process they enable. Hence, interactions need to be understood as two-way effects influencing in much more complex ways the overall effectiveness of the use process. Finally, users are not sole automatons or cogs to the computer, but they constantly narrate and make sense what they are doing. We, however, know relatively little how the ongoing sense-making and framing affects the change in use processes. Access to new sets of data Most of the data available in the HCI studies come from three main sources: 1) state based data trying to capture the latent beliefs, dispositions and attitudes of the users 2) user interactions or logs at a specific time point (in logs), and 3) measures of organizational outcomes like task performance or satisfaction either in perceptual or objective form. These data sets match well

with the expectations of current theory and related instrumentations as they enable to validate the presence of significant interactions among these three states (beliefs, level of use, outcomes). But they tell little about how the interaction unfolded, what the possible paths were and what the users actually did. Due to extensive digitalization (see Lyytinen 2009) we currently have a wealth of use data through digital traces. While some of the uses of this type of data are well known, for example, in optimizing the use and effectiveness of search engines (Google) much more can be achieved with these data sets. They can now be analyzed with network based or event sequencing techniques to distinguish alternative patterns of use, their evolution and change. Such data sets can be also combined with traditional psychometric measurements to explain variations, or the emergence of some attitudes or beliefs. Such data can also be combined with new dependent variables like measures of effective use, improved task performance, or aptitude for learning or change. I surmise that making more available extensive and shared longitudinal data sets on digital use traces offers one sure way to advance new theory and its validation. A road ahead While addressing these three sets of issues HCI community need to also better address issues of relevance and external impact. Several alternatives come to my mind. First, HCI scholars need to seek more collaboration with the design science community as to improve ecological validity of their studies and also to develop ways to integrate HCI knowledge and theory to effective design interventions. Second, though HCI research has not been much influenced by economic theory integrating relevant economic perspectives on the study of use processes, outcomes and learning can greatly improve the external validity of the results. For example, what are the economic consequences of offering easy to use tools; what are the impacts of learning to use effectively and how to use effectively rich computing ecologies should drive the research agenda. Finally, HCI should focus on technologies that really matter i.e. which are highly established, with wide acceptance and use. Instead of examining how users adopt or start use new technologies we should examine more why the use process of readily established technology in a context makes a difference.

References Gaskin J., Lyytinen K. (2010): Psychological Ownership and the Individual Appropriation of Technology, Proceedings of 43th HICSS, 10-14.1.2010 Jung Y., Lyytinen K (2009): Media Choice in Situ: Steps toward Building an Ecological Theory of Media Use unpublished working paper Lyytinen, K. (2009) "Data matters in IS theory building," Journal of the Association for Information Systems: Vol. 10: Iss. 10, Article 3. Yoo, Y. (Forthcoming). Computing in Everyday Life: A Call for Research on Experiential Computing. MIS Quarterly.