Using Technology for Real Time Coordination of Work



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Using Technology for Real Time Coordination of Work Maria Normark Ph.D. Student in Human Computer Interaction IPLab, Nada, KTH, Stockholm marian@nada.kth.se http://www.nada.kth.se/~marian The main focus is technology use for coordination of work in settings where real time information about the state of work necessarily needs to be coordinated in order for people to do their work. Work in control rooms, or so-called Centers of coordination, places demands both on humans and technology. The people working there have to be able to make quick decisions as well as be alert during less busy times. The work has to be coordinated within the group, since the operators are much depending on each other s work. This places special demands on the technology; it should be fast, trustworthy and easy to manipulate so that the complexity of the work is reduced. This type of work has been a source of interest in the research area of Computer Supported Cooperative Work, especially so since the needs for real-time coordination is great in these settings. In centers of coordination there is a greater need for communication through visibility, overhearing and real-time updates than in work not so strongly coupled. Typical work is air traffic control or emergency call-centers, which I have studied. The following issues are defining the work: Time critical tasks Distributed setting The development may be unpredictable, complex Needs for real-time information exchange The main goal is to understand how practitioners bridge these issues, how technology is applied and what it could mean for the design of new coordinative technologies. The CSCW research area is multi-disciplinary where a rich variation of methods and theories are included. My current theoretical interests are in ethnomethodology, culture studies, and human-centered design. The main method for collecting data is ethnography, a qualitative method that means that the researcher tries to understand the activities from within by being there as much as possible. I use video recordings, tape recordings and notes while interviewing and observing the practitioners. To understand the technology in the setting, I study manuals, blue prints etc. The purpose is to understand details that will only come forward through a thoroughly investigation of work, finding issues that may even be hidden to the practitioners themselves and how these issues may affect design. During the last years my study of SOS Alarm has resulted in a Licentate Thesis, (Normark, 2002). This ethnographic workplace study was inspired by ethnomethodological perspectives as well as earlier field studies of work and technology use. Its main results were a description of the work practice and technology at two centers, implications for design of a new

computer aided dispatch system that is currently developed at SOS Alarm and general design ideas for control rooms. Research Background A fundamental part of any social activity is that we orient ourselves in a social way. Simple examples of how we physically orient ourselves is the way we avoid bumping into each other at the pavement or the way we orient ourselves to show that we are queuing. We also use language and signs to socially inform others of our intentions and opinions, etc. The way we choose to orient, adjust, express etc ourselves is largely dependent on our culture. Greetings, for example, differ between countries, cultures and groups, some do nose rubbing, some shake hands, others give a high five and so on. The important issue is that we make our expressions of social interaction intelligible to others in a way that is dependent on our common cultural knowledge. These cues often involve artifacts. One assumption in this research is that professional settings have their own cues and signs that symbolize certain important information for the group. What does for example certain information mean and why is it important? Earlier, machines were generally large, noisy, heavy and easier to read off the status, consider for example the typewriter. One usually did not bring it around; it stood where it stood and one knew what it was used for and it was easily heard through doors. These features could be used as cues by others to understand what was happening. Today, when we use computers for various kinds of tasks it is much more complex to understand from the setting what is happening and what a tool is used for. It is also more difficult to manipulate the computerized material in a way so that others understand what one wants to highlight or put emphasis on. One cannot make dog ear foldings or underline, for example, on a computer screen as easily and as obviously as with paper. And if one does, it is difficult to be certain that ones collaboration partner knows that feature in the program and will notice it. It is thus important to study how people in complex work using computers, deal with them to achieve interaction. At SOS Alarm, I was interested in the cues that were needed in order for an operator to be able to handle a case, to make sense of it, and how it was presented to them. How were artifacts in general and the computer system in particular part of the sense-making work? In order to learn more about what role the computers play for interaction in the work of emergency operators I focused on the following: How is real-time (as-it-comes) coordination done in emergency dispatch and how are the features of the computer system vs. other tools a part of it? An assumption were that a work setting is an arena where the actors to a large extent depend on tools as coordinative mediators (i.e. notes, PM s, documentation, orders, forms), and that the common goal makes it necessary to coordinate. How are social mechanisms inscribed in different artifacts and how does a competent member interpret different objects as resources for social interaction. I make a distinction between: - cooperation: working for a common benefit - collaboration: working jointly - coordination: working interdependently, adjusting to the immediate work of others The perspective was thus on individuals rather than groups or organizations. The question is whether all work is social or not. My assumption was that most, if not all, human conduct is socially oriented. However, not all work is coordinative. In the following,

Schmidt discusses the balance between individual and cooperative work in the sense that I would describe coordinative work: "While work is always socially situated and socially organized, the very process is not always cooperative in the sense that it requires and involves multiple actors who are thus interdependent in their work." (Schmidt, 1994) Previous case study: Air traffic control coordination The issues presented above were first made topic in a study of air traffic controllers. The study took place in Copenhagen, at Kastrup. (Reported in Berndtsson & Normark (1999); Berndtsson & Normark (2000) Later on I did a short comparative study at Shannon airport in Limerick. The controllers could not physically control the aircraft in the sky, but gave directions through radio communication with the pilots. The controllers were directing the aircraft (gave instructions about heading, altitude and speed) continuously in order to keep safety distance between them. The airspace was divided into sectors, and thus was also the responsibility for the aircraft, being in and moving in between. In order to keep track of the current flights in a sector, each flight was represented by a paper flight strip, which was hand annotated with the latest orders given. Since the aircraft usually crossed many sectors during a flight, coordination of the current activities to the adjacent sectors that would be responsible for the aircraft in a near future was necessary. One way to distribute information about the current state to a colleague in an adjacent sector was to broadcast the activities through a video/audio link, which was noted during the field studies at Copenhagen ATC and Shannon ATC. There were several important features of this system: It was unobtrusive It communicated a manageable amount of information It supported a real time view of the state It made use of artifacts that are already there for local communication Current case study - SOS Alarm AB Following the workplace studies of coordination and technology in air traffic control, I became involved in a field study at SOS Alarm AB (also reported in Helgeson, Lundberg, Normark, Pettersson, & Crabtree, (2000). SOS Alarm is the company that receives all calls made to the emergency phone number 112 and they are responsible for dispatch and monitor ambulances and redirect emergency calls to for example the police. The focus in our studies was on how artifacts and technology are used in order to cooperate. The air traffic control study gave examples of the "former" way of working in control rooms, using paper flight strips, radar, and a vast range of sources, towards which the controllers orient. The SOS study was an example of a newer computerized setting, where most artifacts were put into one system and one screen, one focus of attention. One reason for our studies at SOS Alarm was that a new system is under development. A main change would be the national database instead of a local database at each center. In theory at least it would be possible to answer an 112 call regardless of where it is made. SOS Alarm has 20 centers covering Sweden. Besides from receiving 112-calls they also have commercial customers, like alarm companies and they sell on-duty call services for e.g. real estate companies. The operators are consequently handling a wide range of cases, which should be analyzed, documented, coordinated, monitored, and so

on. One focus of interest was how they coordinate the information and tasks between them and how the technology supports that work. The operators main tool was the computer-aided dispatch system called CoordCom. Through the system they handled all communication: telephone, fax, mobitex, radio. They also did all documentation in it. The system was connected to different databases, both the local ones: all action plans, ongoing cases, resources, contact information and also to a central database: the telephone subscription record that generates addresses from the caller. At some centers in Sweden there was a Map Computer in use as well. This computer was mainly used to track the units in the area through the GPS system in the ambulance units. The system could also be used to look up addresses, but is usually considered to slow for that. An incoming 112 call is answered with "SOS 112, what has occurred". That was the first thing the operator tried to decide. Is it a case for SOS or not? What kind of priority should be assigned to the case (1-4)? Do I need to ask a fellow operator to listen in to the call? While deciding what kind of accident it was, the operators worked with CoordCom to document and label the accident. The second kind of information was the address of the incident. After putting in the address, a colleague could start dispatching (if the case is priority 1) while the receiving operator could collect more information about driving directions, development of the accident, etc from the caller. When the call was finished, it was the dispatching operators responsibility to handle the case. S/he choose among the resources that are suggested by CoordCom, based on proximity of the ambulance station. After calling the ambulance verbally, the operator send out a mobitex message, a text message that got printed out in the ambulance, containing the case information that was entered into CoordCom. The mobitex system was also used to send automatic status reports from the paramedics to the SOS operator. The dispatching operator then followed the advancement of the ambulance or rescue vehicle through these status reports. S/he would also may help coordinate information between different vehicles, but the dispatching and monitoring could be handled without any verbal communication between the operator and the units. The division of labor between the call-taking operator and the ambulance dispatcher gave the following issues as areas of concern. The call-taking operator needed to Make decisions about priority and be sure that the dispatcher understand the decision. Document the case on a form-like computerized case-file which has a very limited space. Be able to motivate the decisions to the dispatcher The dispatcher needed to Get the background to the decisions so that s/he is sure of them maintain a good relationship to paramedics, so that they are not dispatched when not really needed From the studies of SOS Alarm some implications for design where drawn. One conclusion was that if the verbal communication should be reduced, then the documentation part needs to be extended. It seemed that the current design orient the work of the operators rather much. Another issue was that the priority/problem categorization is oriented towards the physical problems and not the whole context of the accidents. This became problematic since the operators base their decisions on the

surrounding context as well. A third issue that addressed the new national system was an investigation of what local knowledge was concerning this setting. References Berndtsson, J., & Normark, M. (1999). The Coordinative Functions of Flight Strips: Air Traffic Control Revisited. Paper presented at the In the proceedings of the International ACM SIGGROUP Conference on Supporting Group Work, Phoenix, Arizona, USA. Berndtsson, J., & Normark, M. (2000). The CATCH project - A Field Study of Air Traffic Control in Copenhagen (CTI Working Paper no. 57): CTI Working Paper no. 57, Center for Tele-Information, Technical University of Denmark. Helgeson, B., Lundberg, J., Normark, M., Pettersson, M., & Crabtree, A. (2000). Redovisning av uppdrag i SOS Alarm AB:s Nova 2005 Teknik projekt (541 00 010). Ronneby, Sweden: Institutionen f r arbetsvetenskap (IAR): BTH och SOS Alarm AB. Normark, M. (2002). Using technology for real-time coordination of work; A study of work and artifact use in the everyday activities of SOS Alarm. Licentiate Thesis TRITA-NA-0122, ISBN 91-7283-239-8, Royal Institute of Technology, Stockholm. Schmidt, K. (1994). Modes and Mechanisms of Interaction in Cooperative Work (87-550- 1876-9). Roskilde, Denmark: Ris National Laboratory.