CHAPTER 4

Opportunity Emergence and Evolution

Discovery

Kirzner (1997) considered an entrepreneur is an individual “alert” to opportunities. He posited that alertness is a key difference between entrepreneurs and nonentrepreneurs. Theories of entrepreneurial opportunity reflect an assumption that entrepreneurs either search to discover opportunities or create opportunities without searching. Alvarez and Barney (2007) opined that discovery and creation should be viewed as two conflicting theories of entrepreneurship.

Discovery is about searching the environment for competitive imperfections brought about by external changes. Creation assumes that opportunities do not necessarily evolve out of preexisting industries or markets. Discovery research emphasizes deliberate search as the primary mode of entrepreneurial discovery. The approach assumes the deliberations of the entrepreneurs are critically important in opportunity identification.

Creation involves actions by the entrepreneur’s, which result in opportunity recognition that cannot be known prior to undertaking the activity. Hence, entrepreneurs cannot anticipate the possible outcomes of their actions because the information required has not yet been created. The entrepreneur does not search to find opportunities; they develop their new proposition and observe how customers and markets respond to their ideas. In contrast, discovery assumes competitive imperfections result in exogenous opportunities arising from changes in technology, society, regulatory, or the political environment. These opportunities are objective and observable. Should everybody associated with a particular industry or market know about the opportunities, then they could all become involved in exploiting them. This does not occur because it is only entrepreneurs who differ from the majority through their ability to identify or exploit these opportunities (Edelman and Yli-Renko 2010).

Playbook Guideline 35: Technological entrepreneurs can be expected to emphasize creation over discovery when seeking new opportunities

Support for the perspective that the creative entrepreneurial decision-making process differs from the logical structured planning approach utilized by conventional managers was generated by Sarasvathy’s (2001) study of 27 of the United States’ most successful entrepreneurs. She termed the conventional approach to decision making as being “causal,” being based upon a deductive reasoning in the acquisition and analysis of information. In contrast, entrepreneurs exhibited an intuitive approach she labeled “effectuation.”

Sarasvathy posited that effectual logic occurs in the earlier stages of venture creation with a transition to more causal strategies as the new firm moves from uncertainty into a more predictable environment. She noted effectual logic is likely to be most effective in settings characterized by high levels of uncertainty. Effectuation dictates that, in highly uncertain and dynamic environments, target customers can only be defined ex-post as being whoever buys a product or service. Instead of focusing on goals, entrepreneurs are more concerned about those things over which they have control. At the individual level, this includes personal knowledge, skills, and social networks.

Playbook Guideline 36: Successful technological entrepreneurs can be expected to exhibit a high level of self-effectuation

Knowledge

Discovery entrepreneurs often have specific knowledge about exploiting an opportunity they have discovered. One reason is they have acquired specialized knowledge and information. In some industries, this specialized knowledge may be embodied more in human capital than in physical capital. Entrepreneurs in these industries can sometimes take advantage of specialized knowledge acquired from their employers and leave to start their start their own businesses (Chaston 2004).

In addition to knowledge gained from their own experience, individuals looking to exploit discovery opportunities may be able to access additional information. The impact of available information may alert innovators to potential new discovery opportunities. Many of those engaging in discovery will have a clear idea of the potential outcomes associated with exploiting an opportunity. In contrast, entrepreneurs often do not know with any certainty the potential scale of opportunity resulting from their discovery. The range of possible outcomes associated with exploiting a discovered opportunity may suggest a high level of risk. However, by using past industry or market experience, industry-specific technical or market-related knowledge and past experience, innovators can often gauge the riskiness associated with opportunity exploitation (Withers, Drnevich and Marino 2011).

Schumpeter (1954) opined that the possession of idiosyncratic information allows people to see particular opportunities that are not obvious to others. This is because variations in information and knowledge influence individuals to identify different values in a commercial proposition. The question arises why do some individuals discover entrepreneurial opportunities and not others? One answer is people recognize those opportunities related to information and knowledge that they already possess. Each individual’s prior knowledge creates a knowledge corridor that results in the recognition of certain opportunities. This occurs because prior knowledge influences the ability to comprehend, extrapolate, interpret, and apply new information in a way that was lacking in information available to others (Von Hippel 1994).

Playbook Guideline 37: Technological entrepreneurs often rely upon new knowledge in the development of their ideas and viable solutions

Shane (2000) posited that prior knowledge moderates the relationship between the attributes of a technology and the recognition of entrepreneurial opportunity. He theorized that (i) any given technological change will generate a range of entrepreneurial opportunities that are not obvious to all potential entrepreneurs, (ii) entrepreneurs may discover these opportunities without searching for them, and (iii) any given entrepreneur will discover only those opportunities related to his or her prior knowledge.

At the heart of new product development is the emergence of something new or novel. Identification of novel information and knowledge is a key input to new product development. Hence, the search that directs attention toward new information and knowledge leads the searcher to develop new behaviors, interactions, strategies, and processes that are useful in new product development. Li et al. (2013) posited that the search process involves two components, namely “search selection,” which focuses on the locations that managers select to direct their attention to during search, and “search intensity,” which describes the cognitive effort and persistence that managers use when searching. These two dimensions are relevant because attention can be wasted when encountered information search is irrelevant, or alternatively, relevant knowledge is not recognized or examined in detail.

Li et al. employed the notion of “terrain unfamiliarity,” “terrain distance,” and “terrain source diversity” as key dimensions within search selection. Unfamiliar, distant, and diverse terrains are more likely to contain novel, salient, and vivid information that is more likely to capture searchers’ attention. Consequently, such new knowledge is more likely to enable searchers to detect insights and breakthroughs related to radical product innovation. In addition to capturing the searchers’ attention better, unfamiliar, distant, and diverse terrains are also more likely to yield new information, which helps searchers update their knowledge base and gain insights into the detection, development, and deployment of new products.

Playbook Guideline 38: New knowledge provides technological entrepreneurs with insight and breakthroughs that provide the basis for radical innovation

Smith et al. (2005) found the rate of new product introduction to be a function of knowledge workers’ ability to combine and exchange information. They determined that novel information enables firms to develop new ideas about how to allocate resources better and how to co-ordinate innovation efforts. Furthermore, novel information allows firms to discard obsolete knowledge. This is critical because replacing obsolete knowledge can help reduce the possibility of firms becoming trapped in behavior based on competences developed and used in the past.

Search intensity has an important influence on the success of innovation outcomes. Gregoire and Shepherd (2012) suggested that where managers stop gathering information after finding a satisfactory alternative, they may remain ignorant of better alternatives. In the context of developing new products, increased search effort and persistence provide searchers with enhanced capacity to notice, interpret, and make sense of information and knowledge in ways that foster the detection, development, and deployment of new products.

Prior Knowledge Diversity

Case Aims: To illustrate how diversity in prior experience will determine the nature of the opportunities identified for a new technology

Three-dimensional printing (3DP™) was developed and patented by MIT in the United States. The process provided the basis for creating a whole new approach to manufacturing technology. Shane (2000) used licenses granted by MIT for this technological breakthrough innovation to examine how different entrepreneurs identified new opportunities for exploiting technology.

All of the entrepreneurs described a discovery process that involved recognition of an opportunity, rather than engage in a search for information upon which to base their new products. Each had heard about the technology from someone directly involved in development work at MIT and immediately recognized a potential opportunity. When the various commercial outcomes were reviewed with the entrepreneurs, all of them confirmed that they would not have identified the opportunities that the other firms in the sample were pursuing. This was because, in terms of opportunity recognition, all of them drew upon their prior experiences and knowledge of a specific industry or market sector.

Discontinuity

In many industries, there are long periods where there is little change other than incremental technical improvement. However, there can be periods when discontinuities emerge, which are fundamentally different and reflected in order-of-magnitude improvements in the cost or quality of the product (Anderson and Tushman 1990). These product discontinuities are fundamentally different product forms that provide the basis for entrepreneurial technological change. Examples include the jet versus piston engines, diesel versus steam locomotives, CT scanners versus x-rays, and integrated circuits versus discrete transistors.

Anderson and Tushman characterized technological discontinuities as competence-enhancing or competence-destroying. The impact of a discontinuity is the greatest when there is a radical advance in technology. In many cases, the early form of radical innovation is crude, but nevertheless will result in technological uncertainty. This period of uncertainty is characterized by two selection processes, namely competition (a) between existing and new technical regimes and (b) within the new technical regimes. This period of substantial uncertainty eventually ends with the emergence of a dominant technology.

Competition between old and new technologies can be fierce. The new technologies may be criticized because they frequently perform poorly or demand new competences that are inconsistent with the existing established technologies. This criticism is often accompanied by an increase in the level of innovativeness among firms committed to an existing technology. Concurrent with competition between old and new technologies is competition between the supporters of the new technology. This is reflected in the emergence of several entrepreneurial versions of the new technology that appear. This occurs because the technology is not well understood, and each pioneering firm has an incentive to differentiate their variant from their rivals. This latter type of competition often results in initial designs rapidly improving as the innovators gain understanding of the new technology and the nature of market demand.

Anderson and Tushman concluded the length of the era of competition is contingent on the nature of the technological discontinuity. When a technology generates a completely new knowledge base and many rival designs appear, it will take longer for the market to choose the winner. Furthermore, firms confronted with the choice of abandoning existing know-how in the face of competence destroying technical change will defend older technology more stubbornly, prolonging uncertainty about whether the new technology will become dominant. The process of converging on adoption of a new industry standard will be hampered by a lack of common understanding among entrepreneurs about the exact nature of the opportunities created by the new technology. However, once a new dominant design emerges, future technological progress will tend to be based on incremental improvements elaborating upon what is now the accepted industry standard. The emergence of a dominant design permitted firms to move toward standardized and interchangeable parts and the optimization of organizational processes to achieve higher volumes and efficiency. From the customer’s perspective, dominant designs reduce product-class confusion and usually result in lower product cost.

During the era of rapid technological innovation, potential customers are confronted with several different versions of the new technology. Choosing any variant in the absence of a standard is risky. Hence, the majority of potential adopters will await the emergence of an industry standard before purchasing a radically different new product or new process technology. This scenario led Anderson and Tushman to argue that the emergence of a standard is a prerequisite to mass adoption and volume production of a new generation of technology.

Playbook Guideline 39: The aim of the technological entrepreneurs is to ensure their radical solution becomes adopted as the new standard within specific industrial sectors or markets

An Industrial Discontinuity

Case Aims: To illustrate how technological discontinuities can impact the performance of organizations

Following the invention of the telephone in the 1870s by Alexander Graham Bell, the core technology, accompanied by incremental innovation, remained virtually unchanged for over 100 years. The technological discontinuity in the 1980s was the development of the mobile phone. Initially, the product was extremely expensive and mainly mounted in cars. Due to high prices, mobile phones were products that initially only appealed to the business market. Motorola in the United States, Ericsson from Sweden, and Nokia from Finland were the dominant players in this new industry (Giachetti and Marchi 2010).

The key influence on market expansion for the mobile phone was the agreement of a standardized system for signal generation in Europe known as the Global System for Mobile Communication (or GSM). This standard created a common bandwidth that would facilitate pan-European roaming, established mass market opportunities, and reduced call costs. GSM became known as second-generation mobile phones (or 2G), and unlike early systems, used digital signal technology. This enabled the development of services, encryption of voice and data, additional capacity, reduction of the size of base stations, and lower prices.

The launch of the digital technology marked two distinct technological discontinuities, namely the sudden redundancy of the first-generation analog devices and the rise of second-generation services and equipment. Nokia committed earlier than competition to the emerging pan-European digital GSM mobile communication standard and started to building relationships with new independent mobile network operators. Size and weight of mobile phones shrank rapidly, which along with commercialization of handsets to the consumer market accelerated by the increasing number of network operators’ involvement in consumer markets. To stimulate market expansion, network operators such as Vodafone began to purchase handsets from Original Equipment Manufacturers (OEMs) and then sold them to consumers through retail outlets (Doz and Kosonen 2008).

In the second half of the 1990s, the size, weight, and price of handsets continued to be reduced. During this period, 1990s, Motorola began losing market share mainly, because, despite the growing interest in digital technologies, the company possibly focused on the production and development of analog devices for far too long. As competition intensified, most companies adopted a strategy based on low price (Shi, Chiang, and Rhee 2006). Meanwhile, Nokia, the market leader, maintained a strategy based on exploiting customer replacement demand. Three product technologies drove the replacement cycle, namely multimedia messaging service (MMS), color displays, and camera phones. Japan became the innovation center where top OEMs first tested new technological features. However, weak brand recognition outside their home market resulted in Japanese OEMs unable to gain a first-mover advantage over foreign competitors in overseas markets. Their product innovations became copied and used as a source of product differentiation by the bigger international rivals. At this stage, in order to stimulate the demand for replacement purchases, OEMs added to both low- and high-end handsets and offered new functionalities such as a digital camera, MP3 player, Internet connection, radio, and a voice recorder. By the mid-2000s, these multitasking products had become the new dominant design.

By offering functionalities that are not related to basic voice communication capabilities, these OEMs were entering markets already populated by firms within the computer industry. Hence, some personal computer (PC) makers were prompted to enter the mobile phone market. The most successful was Apple, which launched the iPhone, a device combining voice, MP3 player, and personal digital assistant (PDA) applications to create the smartphone. These are electronic handheld devices that integrate the functionality of a mobile phone, PDA, and other information-exploitation appliances. Although more expensive than the basic mobile phone, the diversity of applications and services delivered has resulted in the smartphone permitting computer firms such as Apple to enjoy huge profits while OEMs such as Nokia faced severe financial difficulties.

Bold Innovation

Once entrepreneurial products enter the market maturity phase, there is a tendency for firms, in the face of increasing competition, to engage in commoditization. Innovation involving line extensions, modifications, and minor performance upgrades become the priority. As a consequence, resources are assigned to new-product development efforts in the wrong areas, namely in flat markets, mature technologies, and tired product categories, which eventually constitute the majority of firm’s product portfolio (Chaston 2016).

To avoid this outcome, Cooper (2011) posited that what is required is “bold innovation” involving the firm focusing R&D efforts on the most attractive arenas for future market growth. For this to occur, the firm will need to create a positive climate for entrepreneurial innovation, support radical innovation at every opportunity, and to welcome ideas from all employees. Furthermore, there is the need for having the right senior leadership that can drive and support the innovation effort with words as well as through actions. Unfortunately, many businesses lack the needed climate, culture, and leadership for innovation, and as a consequence, fail to engage in larger scope and more imaginative development projects.

Playbook Guideline 40: Long-term growth demands ongoing commitment to engaging in radical, not incremental, innovation

Cooper noted that generating great ideas is only half the battle. Success also requires that there is an effective rapid idea-to-launch system in place. Additionally, there is the issue that many businesses have lots of good new product ideas, but lack the appetite to invest in larger-scope, more risky projects, despite the fact they promise to be tomorrow’s growth engines. Part of the problem can be the lack of a solid business case. This is because big concept projects are innovative and risky. It is difficult to get the accurate data and construct a solid, fact-based business case to convince senior management to make the investment. Senior management should drop their reliance upon financial tools and return-on-investment methods to make their go or no-go decisions. These methods work for smaller, less innovative projects, but may lead to the wrong decisions when it comes to larger-scope, riskier innovation programs. Instead, there is a requirement to assess ideas in relation to fertile strategic arenas identified as likely to offer major new sources of market growth through the development of radically new products or services.

Cooper posited that the potential for success is likely to be much higher when based on a philosophy of attacking from strength. This approach relies upon identifying the firm’s unique capabilities that could be leveraged to advantage in other markets, applications, and sectors. He suggested that specification of these strategic areas is fundamental to defining the nature of major new product development efforts. Without this, the search for specific new product ideas or opportunities is likely to remain unfocused, and the portfolio of new product projects can contain a lot of unrelated projects, in many different markets, technologies, or product types.

Playbook Guideline 41: Long-term success often depends on understanding the company’s strengths and exploiting these when engaging in radical innovation

Acting Boldly

Case Aims: To illustrate the benefits of recognizing the ongoing validity of returning to an organization’s original entrepreneurial competence model

Corning Company began to manufacture glass casings for Thomas Edison’s light bulbs in New York in the 19th century. However, it was the entrepreneurial enthusiasm of Eugene Sullivan in the early 20th century that established the vision of the company exploiting an understanding of the chemistry and capabilities of glass to provide the basis for new innovative products. Included in the product line, which subsequently emerged as a result of this vision, were ovenproof ceramics (notably Pyrex and Corning Ware), cathode-ray color TV tubes, and fiber optics for voice and data communication (Kelly 2010).

The huge financial lure of becoming the leading manufacturer of fiber optics for the telecommunications industry caused the company to decide to drop the vision of utilizing research on the chemistry and capabilities of glass to develop new products. The company became deeply involved in production of fiber optics. Initially, this action led to a doubling in annual revenue between 1997 and 2000, caused the company to expand manufacturing capacity, and to fund this strategy, selling off their large medical services business and the Pyrex and Corning Ware operations.

In the early 21st century, changes in the telecommunications industry and the entry of other firms into the fiber optics sector left Corning facing excess manufacturing capacity, declining demand, and an operating loss of $500 million (Mehta 2001). The board persuaded the retired chairman James R. Houghton, the great-great grandson of Coming’s founder, to return as the new CEO. He found that the optical fiber group had been receiving the bulk of R&D funds, and other areas of research expertise in the chemistry of glass had been left to wither away. Houghton recognized the need to return to the company’s founding competences. He drastically reduced the scale of Corning’s fiber optics operations and shut down the firm’s new small photonics business. He was also, much to his own personal regret, forced to make thousands of employees redundant.

To rebuild Corning, Houghton chose to return to being a competence-driven, diversified, research-orientated company and to avoid making short-term decisions based purely on financially attraction. Within only a few years, Corning has become a global leader in four market segments, namely display technologies, environmental technologies, telecommunications, and life sciences. The proven importance of R&D is evidenced by the opening, in 2010, of the company’s new $300-million research facility at Sullivan Park Research and Development campus in the New York state.

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