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The world economy is transitioning from a production-based economy to one that is more dependent on services for employment and wealth creation (Chesbrough & Spohrer, 2006; Demirkan et al., 2009; Spohrer & Maglio, 2008). This transformation has driven rapid research growth in service science and service innovation. Researchers have debated whether or not to differentiate between product and service innovations (Daim et al., 2008; Daim et al., 2009; Lin & Daim, 2008). Some argue that the same fundamentals are valid in either case, while others argue otherwise (Lusch & Vargo, 2006; Vargo & Lusch, 2004). It is our contention in the case of technology-driven service innovations, that tools and techniques that have been successfully applied in the product domain can be adapted to services research. We selected the case of location-based services (LBS) to demonstrate how technology road mapping can support innovation and the adoption of LBS processes. The rapid growth of mobile devices such as cellular phones (especially smart phones), personal digital assistants, and pagers have provided significant opportunities for service innovation.
An increasing number of mobile devices allow people to access the Internet wherever and whenever they want. The emergence of smart phones with GPS capability that operate on fast digital networks has become the key to the development of mobile location services. For some time, researchers have predicted that LBS will be the most common form of context-aware computing (Ljungstrand, 2001). LBS provide spatial and location-dependent information that is targeted to each user’s specific location-relevant needs (Benson, 2001; Unni & Harmon, 2006). LBS users can enjoy various types of services such as mobile yellow pages (to find the nearest point of interests), mobile buddy lists (to find friends nearby the current location), traffic navigation (to find the shortest distance to the destination), emergency support services (to find nearest police stations or restaurants) and equipment tracking (Jose & Davies, 1999; Schiller & Voisard, 2004).
Although LBS are considered to be a primary technology service in the wireless space, the adoption process has been very slow. Consider that LBS have great potential for enhancing safety, security, navigation, collaboration, and productivity that is not possible on desktop computers, the slow adoption rate is disappointing (Barnes 2003a; Harmon & Daim, 2009; Oracle Technical White Paper, 2001). The reasons have become clear. Potential customers, both business and consumer, perceive LBS to be complex, costly, and offering insufficient value to warrant adoption (The Economist, 2006). However, with the advent of the GPS-enabled smart phone and 3G networks, the LBS trajectory is about to change. Recent projections indicate that worldwide subscribers of GPS-enabled LBS will grow from 12 million in 2007 to reach 315 million in 2011 (Morse, 2006), and the location-based advertising (LBA) market will be a $2 billion market opportunity by 2011 (Boulton, 2007).
Technology road-mapping, initially used in the 1970’s (Probert & Radnor, 2003; Willyard & McClees, 1987), has many applications such as national-technology roadmaps (Diebold, 1995; Prem & Raghavan, 2005; Spencer & Seidel, 1995), industry-technology roadmaps (Ning, 1995), and international-technology roadmaps (Schaller, 2002). Early versions as applied by EIRMA (1997); Koen (1997) and Probert and Radnor (2003) defined technology roadmaps with practical tools for easy implementation. Phall et al. (2003, 2004) provided a method called T-Plan and demonstrated very efficient use of the process. Kostoff and Schaller (2001), Kostoff et al. (2004), Lee and Park (2005) and Rinne (2004) provided additional tools and perspective. Lee and Park (2005), Lopez-Ortega et al. (2006), Newman and Leyerhantz (2001), Kappel (2001), Albright and Kappel (2003), and Groenveld (2007) have applied roadmaps in diverse situations.