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Article

Feasibility of the Fintech Industry as an Innovation Platform for Sustainable Economic Growth in Korea

1
Department of Management Information Systems, Sahmyook University, 815, Hwarang-ro, Nowon-gu, Seoul 01795, Korea
2
Department of International Trade, Inha University, 100 Inha-ro, Michuhol-gu, Incheon 22212, Korea
*
Author to whom correspondence should be addressed.
Sustainability 2019, 11(19), 5351; https://0-doi-org.brum.beds.ac.uk/10.3390/su11195351
Submission received: 17 August 2019 / Revised: 16 September 2019 / Accepted: 23 September 2019 / Published: 27 September 2019
(This article belongs to the Section Economic and Business Aspects of Sustainability)

Abstract

:
This paper examines the feasibility of fintech as a platform for sustainable economic growth and as a prompter of the fourth industrial revolution. To analyze the role of fintech in the national economy, we first broaden its definition and compare its economic performance using three methodologies—Demand-driven model, Supply-driven model and industry linkage effect in interindustry analysis. We find that the fintech industry has a stronger effect on production inducement. Regarding industry linkage effects, fintech ranked the top in all 31 industries for the forward linkage effect and 22 for the background linkage effect—much higher than the traditional financial industry. This implies that the fintech industry is effective as the intermediate good with national demand as well as the final good. Particularly, this industry plays the roles of intermediate and final goods across almost all industries. That is, fintech could better promote overall national economic performance as a platform industry. Because most businesses within the fintech industry depend on innovation through the integration of finance and information technology, we find that fintech can feasibly prompt the fourth industrial revolution. Nonetheless, this industry is characterized by excessive regulations in Korea, indicating the need for negative regulation for new, innovative businesses within the fintech industry that would critically emphasize innovativeness for inclusive, sustainable economic growth.

1. Introduction

The fourth industrial revolution, popularly characterized by artificial intelligence, Internet of Things and robotics, is a platform industry that increases the competitiveness of all industries through value-added and qualitatively differentiated services [1]. This revolution expanded to financial technology or fintech, creating a novel business model based on financial services provided through critical technological innovations.
Fintech is innovative technology that aims to operate traditional financial services using computer programs and information technology (IT) [2]. This emerging industry incorporates technology to enhance both financial activities as well as promote services such as smart financial consulting [3]. Lee and Shin (2018) emphasized the role of fintech as a prompter for innovation in the financial industry and as a leader of the sharing economy [4]. Philippon (2016) also noted that fintech could induce business revolution via digital revolution by developing innovative ways to provide products and services and thus mitigating or eliminating, impediments common in traditional industries [5].
This contemporary ecosystem was created through diverse innovations of new fintech businesses, fintech developers, smart financial consumers, rapidly evolving traditional financial institutions and even governments. Through IT, artificial intelligence and Internet of Things technologies, fintech is transforming core aspects (e.g., payment, insurance, saving deposits and loan services) of financial industries into a newer, integrated, yet diverse, service industry [4,6].
According to a global report [7], fintech industry consists of payments (84 percent), fund transfers (68 percent), personal finance (60 percent), personal loans (56 percent), traditional deposits/savings accounts (49 percent), insurance (38 percent) and wealth management services (38 percent) [7]. The fintech industry complements not only the traditional financial services but it also creates unique business services. According to KPMG (2019), the fintech industry has grown more than six times—from US$ 18.9 bn in 2013 to US$ 111.8 bn—for just six years in the global market [8]. This industry comprises numerous business models and it is one of the most rapidly growing businesses in the world.
The fintech industry has huge potential, especially illustrated by the so-called ‘unicorn companies’ with outstanding performance. According to CBINSIGHTS (2019), unicorn companies’ global market value exceeds US$ 1 bn in such a short period. As expected, the U.S. ranks first with 24 fintech unicorn companies led by the Credit Kama (US$ 48 bn). Asia has nine successful unicorn companies, with six companies in China, two in India and one in South Korea [6]. The distribution of these unicorn companies is scattered, implying that the fintech industry could become a new global norm in all economic activities regardless of the level of economic development.
Despite the general unawareness of financial consumers, fintech is already deeply rooted in the Korean economy. In 2017, 84 percent of financial consumers used fintech as their payment service, whereas 38 percent used wealth management services for their portfolio [7]. This rapid adoption of fintech services has allowed the industry to grow by over six times: from US$ 18.9 bn in 2013 to US$ 111.8 bn in 2018 [8]. Irrespective of challenges such as an encumbering regulatory system and risks associated with any new industry, the fintech industry is experiencing strong growth owing to customized, consumer-oriented innovations for the smart consumer [9,10].
Fintech is also an engine for sustainable development of developing economies. This is true especially for Korea because fintech is a platform for innovations in the financial industry and a prompter for transformation into an advanced economy equipped to cope with the fourth industrial revolution [10,11]. Fintech could provide new financial services as well as diverse on-demand services adjacent to the field of finance [12]. The function of timelines and convenience of fintech are crucial when creating diverse new businesses based on on-demand fulfillment of consumer demands [13,14]. Especially, peer-to-peer (P2P) crowdfunding supported by fintech has opened new avenues for consumers, who can now bypass traditional financial institutions. This phenomenon might lead to diverse, new financial businesses with their own sustainable ecosystem [15,16,17,18,19,20,21,22].
There is abundant research on the fintech industry. When the fintech industry was in its initial stages, most research focused on the definition of fintech services and their functional role in the financial sector [16,17,18,19]. They argued the different characters of this industry from the traditional financial industry because of its unique ecosystem, though fintech would eventually evolve to broaden the scope of services in the traditional financial industry [5,9,10,12,16,20,21]. Also, several papers have revealed that the fintech industry’s ecosystem and business model with distinct characteristics from the existing financial industry [1,4,22]. From the customer’s perspective, most analyses are focused on the user’s intention to consume fintech products and services; this includes determining major factors of user intention, such as usefulness and ease of use [23,24,25,26]. In economic perspective, Porras-Gonzalez et al. (2019) introduced the positive impacts and limitations of blockchain technology on the global economy [27]. As such, fintech is an industry that has brought innovation in the financial industry. It is expected to contribute to economic sustainability as an industry having distinct characteristics from the existing financial industry. However, many of the previous studies have focused on aspects of innovative tools in the financial industry but simply concluded that they would have a positive impact on the economic system. Therefore, it is necessary to find the quantitative evidence of the economic impact between the fintech industry and the existing financial industry on the national economy. This research objective is important to identify the fintech industry as not only an innovation tool for the financial industry but also an platform for the level-up of all the traditional economic system.
In this study, we seek to answer the critical questions: Can the fintech industry play a role as an innovation platform industry at the national economic level? To answer this, the following detailed questions should be answered: First, is the fintech industry different from the traditional financial industry in terms of amount and scope of impact on the national economy? Second, what role does the fintech industry play in the national economic ecosystem?
Therefore, the purpose of this study is to investigate whether the fintech industry can play a role of an innovation platform at the national level, which will be measured quantitatively by the direct and indirect economic impacts of the fintech industry. To analyze this in national equilibrium model, the study uses demand driven model (DDM), supply driven model (SDM) and industry linkage analysis. Through these approaches, this study shall prove that the fintech industry triggered creative destruction in the financial industry by the economic ripple effects.

2. Literature Review and Theoretical Background

2.1. Conceptual Characteristics of Fintech

Fintech refers to technology-enabled financial solutions. However, it is not only confined to sectors such as financing or business models such as P2P lending but also covers the entire scope of services and products traditionally provided by the financial services industry [8]. Kim et al. (2016) defined fintech as a service sector that uses mobile-centered IT technology to enhance the efficiency of the financial system [23]. More broadly, fintech is a line of business that uses diverse software to provide on-demand services related but not limited, to financial services. Often, fintech companies are innovation-oriented startups founded to transform incumbent financial or monetary systems into new, innovative on-demand services.
Based on the functional change of fintech, Arner et al. (2015) differentiated the fintech industry based on three stepwise stages of development over time. In the beginning, fintech 1.0 generation supported better infrastructure for traditional financial services to globalize the financial market from 1866 to 1987. Because of rapid development of digital technology, fintech 2.0 generation focused more on diverse access to the public. That is, fintech, at the time, became a public digital portal for company intranet from 1988 to 2008. From 2008 onward, fintech 3.0 generation shifted its focus from professional company managers to netizens as financial consumers. Based on new demands from financial consumers, fintech 3.0 has actively developed diverse financial services [9]. Lee and Shin (2017) argued that fintech 3.0 or current fintech, consists of a fintech eco-system involving startup companies, traditional financial institutions, financial consumers, fintech developers and governments. According to Korea’s Financial Supervisory Service (2018), the fintech business model can be categorized into ten groups: online money transfer and payment, crowdfunding, P2P financing, robot adviser, wealth management, financial security and authentication, financial platform, insurance fintech companies, blockchain and other on-demand services [28]. However, the innovative characteristics of fintech mean that this industry suffers from differentiation because of the legacy regulatory system; thus, a new regulatory approach is necessary [4]. Structurally, all categories of fintech businesses fall under four fintech industries: financial platform, financial data analysis, smart financial services and innovative fintech software [28].
In this study, we examine the new fintech trend—That is, can fintech sustainably maintain competitiveness or efficiency for all firms using it? To become a trend setter, fintech requires appropriate governance with respect to innovation technology and its capacity to change organizational culture. Because governance is a workable mechanism for sustainable performance [29] (p. 3), fintech should harmonize its working networks between technology and organizational culture [30]. Especially, to maintain sustainable fintech development, circular innovation requires both endogenous and exogeneous sources [30]. In this respect, over time, fintech has successfully promoted its competitive edge in new services, new businesses and the resulting profitability for all parties concerned. These aspects are crucial if fintech were to become an innovation platform that transforms the economic structure wherein all fintech companies, users and technology developers are proactive actors who enhance the use of fintech for all economic activities. As stated earlier, these activities are not only limited to financial transactions but include a wider range of value-added economic activities. Therefore, many researchers have contended that fintech is based on a circular trend of creative destruction [5,9,10,12,16,20,21].
Creative destruction in our context implies that new fintech services that do not have similarities with traditional marketing characteristics but create new norms, are easily adopted by all industries. Such services abolish the competition criteria through innovation. They are welcomed not only in the traditional low-end market but also in the newly created market. That is, such fintech services lead to better values and more profitable innovations for all markets. A new fintech company can thus easily enter the traditional market and/or create a new market with different conceptual characteristics of its service [31,32]. This creative destruction affects both the traditional financial industry and other industries because fintech products and services can be complementary assets in nationwide economic structures [11]. For example, Alipay in China transformed the Chinese economy into a cashless economy. The resulting innovation led to the establishment of diverse online-to-offline businesses. Similarly, the Alipay revolution popularized the quick response (QR) code to conduct most economic activities. Motivated by the initial success of this payment service, other fintech businesses such as crowdfunding and P2P businesses are prospering in this region.
In this research, our focus is to examine the role of fintech as a prompter of innovative transformation of the national economy.

2.2. Literature Review

The diverse fintech services began after 2010. Although there are different views on when fintech began at first, there is no doubt that the quality of service has elevated after the birth of smartphones after 2010. Thus, various types of studies related to fintech were pointed out after 2010. In this stream of studies related to fintech, the early studies were mostly related to define, categorize and explain the role of fintech [16,17,18,19]. Most of the research argued the fintech as a different industry from other industries because of its own unique ecosystem [5,9,10,12,16,20,21]. Most of this research focused on the relationship between fintech and financial service industry; not focused on the overall economy of the country.
Over the time, research on the fintech focused on the service users of fintech in micro-perspectives. Kim et al. (2016) argued in their study about the positive influence of the marketing factors such as usefulness, ease of use and credibility and the negative influence of concern for information privacy on user’s intention [23]. Chuang et al. (2016) discovered, that such factors of brand and service trust, perceived usefulness, perceived ease of use, made influence on user’s attitude and finally the usage intention, based on technology acceptance model (TAM) theory [24]. Moreover, Lim et al. (2019) proved the relationship between variations of confirmation, perceived usefulness and satisfaction that influences the usage of fintech—knowledge and perceived security of the mobile fintech service causes an influence on user confirmation but perceived usefulness, perceived security does not cause an influence on user satisfaction and continual intention to use [26].
Unfortunately, there is very little research to analyze the fintech industry using interindustry analysis; most of the studies were focused on various IT industries and IT convergence industries in macro-perspectives. First, Shin & Choi (2013) used demand driven model (DDM) and supply driven model (SDM) to analyze the ripple effect of IT service industry of four sections, for five-year period from 1995 to 2009 in South Korea. Over the time, the influence of the IT service that affects the economy of South Korea constantly increased and there were significant differences between each industry affected by different models of IT service [33]. Shin & Yim (2015) also conducted research related to the development of the IT industry in order to analyze the effect on the Korean IT hardware industry and the IT service industry using DDM and SDM, and on the industry linkage effect. There was a high result that the influence on the Korean economy of the IT hardware industry was bigger compared to the IT service. IT service industry, on the other hand, has lower economic ripple effect than IT hardware industry; however, it has higher influence on IT hardware industry compared to other industries [34]. Using this IT related research, we will analyze the effect of the fintech industry on the national economy.
Moreover, the studies with interindustry analysis on IT convergence related industry is as follow. Kim et al. (2016) argued smart city which is one of IT convergence related industry and analyzed demand inducement model and industry linkage effect. They discovered that smart city not only allows sustainable city but also takes an important role in nation’s economic growth level [35]. Kim et al. (2017) used DDM, SDM and Leontief price Model, as well as the industry linkage effect to analyze the effect of U-healthcare industry that affects Korean economy [34]. The result shows that U-healthcare industry took high effect on production inducement on primary industry and low on price ripple effect [36]. Shin (2018) analyzed mainly job creation part of demand inducement model with interindustry analysis in order to compare the effects on job creation of South Korea and the USA. Shin found out with one million USD of investment for fintech, South Korea can create 20.8 jobs while the USA does only for 15.79 jobs [37].
The diverse studies in the field of fintech and/or IT industries have been actively introduced new phenomena as the fintech ecosystem since after mid-2010s using various subjects and methods. Majority of studies, however, just focused on the innovation of traditional financial industry or fintech user oriented, while most of interindustry analysis studies were related to IT industry and convergence industry. Therefore, this study will contribute to the existing fintech research with the integrative feasibility of the fintech industry as a sustainable innovation platform for not only the financial industry but for the whole national economy.

3. Methodologies and Empirical Tests

3.1. Interindustry Analysis

The input–output table comprises all nationwide economic activities involving systematically organized transactions among all economic entities and their interrelationships with respect to products and services [37]. This table helps researchers analyze interindustry interrelationships within an economy through a macroeconomic perspective [38]. It systematically explains the output produced by one industry as the input for another industry within the complete industry ecosystem. Indeed, examining the unexpected change in one input or exogeneous shocks (e.g., an innovative technology) over all industries is meaningful. Based on this general equilibrium type of national economy, we can examine or predict the effect of an external policy shock or a new technology innovation. Because an interindustry analysis reveals both direct and indirect effects of external shocks on the national economy, it is useful for examining the feasibility of fintech as a platform that leads to industry-wide diverse spillover effects. A substantial amount of studies on the IT industry are based on such an interindustry analysis [33,34,39,40].
Research on the fintech industry is conventionally an interdisciplinary analysis that includes both the IT and financial industries. Therefore, we use an interindustry analysis based on the 2015 input–output table published by Bank of Korea [41]. We use this input–output table to systematically examine the feasibility of the fintech industry by innovation platform for sustainable economic growth. In the first stage, we use the production inducing effect and value-added inducing effect on the DDM, supply shortage effect on the SDM and industry linkage effect for the fintech subindustry sectors. In addition, we use the exogenous specification approach in the initiation of the model [42]. Through this exogenous specification, we can effectively separate the direct and indirect effects of the fintech industry. Here, the direct effects refer to the economic effect of the fintech industry itself and the indirect effects refer to the influence on other industries except for the impact of the fintech industry itself.
In order to achieve the purpose of this study, we shall quantitatively identify the extent of the production-inducing, value-added inducing effects of the fintech industry and the financial industry. It can also explore the economic role of the fintech and financial industries. These results can be used to assess whether the fintech industry can serve as an economic innovation platform for all industries nationwide.

3.2. Demand-Driven Model (DDM)

To examine the production inducement effect, we evaluate the input coefficients ( α i j ) using the intermediate goods ( X i j ) of the specific fintech industry divided its total outputs ( X i ). Placing all these input coefficients along the input–output table allows us to obtain the production input coefficient table (A). We evaluate these coefficients as follows:
i j   Interindustry   input   coefficient , α i j = X i j X j
where X i is the input amount in subsector i and X i j is the input amount in subsector j by intermediate inputs x i .
We can evaluate the production inducement coefficients through the exogenous variables of the table above:
Production   inducement   coefficient , α i j = ( I A ) 1 A s
where A s is the reorganized input coefficient line vector in each subsector, I is the diagonal matrix with diagonal vector 1 and A is the production input coefficient table with each coefficient ( α i j ).
We can evaluate the value-added coefficients on the input–output table using each industry’s added value amount for all industries’ total output:
Value   added   coefficient   of   the   subsector , j ,   v j = V j X j
where V j is the added value amount of subsector j .
The value-added inducement coefficient is the new value of the national economy yielded from all the subjects in the research. We can evaluate it by integrating all the production inducing effects of the subjects:
Value   added   inducement   coefficient   =   v i ˇ ( I A ) 1 A s
where v i ˇ is diagonal vector of the value-added coefficient and ( I A ) 1 A s is the production inducement coefficient.

3.3. Supply-driven Model (SDM)

To evaluate the supply shortage effect on the SIM, we must first calculate the output coefficient table—that is, the output coefficient ( R i j ) is the total amount of intermediate goods divided the total produced amount to produce any specific goods or services. Replacing all these coefficients on the input–output table yields the output coefficient table. We evaluate each output coefficient as follows:
Output   coefficient   of   the   interindustry   of   i j ,   R i j = X i j X i
where X i is the output of subsector i and X i j is the output amount in subsector i by intermediate inputs j .
Next, we evaluate the supply shortage coefficients when the target subsector becomes exogenous to the output coefficient table above:
Supply   shortage   coefficient   =   R s ( I R ) 1
where R s is the output coefficient horizontal vector of the subsector, I is 1 diagonal matrix with diagonal vector 1   and   R is the output coefficient matrix ( α i j )

3.4. Industry Linkage Effect

The industry linkage effect consists of forward and background linkage effects. The forward linkage effect (FLi ) comprises the sensitivity coefficients, which indicates the amount by subsector i should increase its product or service output to increase one unit of the final demand. Equation (7) shows this coefficient, which arises from the horizontal sum of the production inducement coefficients divided by the average sum of the production inducement coefficients of all industries.
F L i = 1 n j = 1 n α i j 1 n 2 i = 1 n j = 1 n α i j
The background linkage effect ( B L i ) or influential coefficient implies that the ripple effect of the subsector produces its own production for all other industries that produce their output as inputs of this subsector. We can evaluate this effect using the subsector’s production inducement coefficients divided by the average production inducement coefficients ( α i j ) of all industries, as shown in Equation (8).
B L i = 1 n i = 1 n α i j 1 n 2 i = 1 n j = 1 n α i j

3.5. Research Process

Figure 1 shows the research structure and each stage in the stepwise process. Our primary focus is a comparative analysis of the functional role of the national economy with respect to the fintech and traditional or ordinary, financial industries, especially the fintech banking and insurance subsectors.
In the first stage, we use the DDM to evaluate the production and value-added inducing effects. We use the results obtained to compare the fintech industry with the ordinary financial industry through the direct and indirect effects in the primary, secondary and tertiary industries. This, in turn, allows us to evaluate the feasibility of fintech as a sustainable platform for the national economy.
In the second stage, we use the SDM to evaluate and compare the supply shortage effects of the fintech and ordinary financial industries.
In the third stage, we finally evaluate the forward and background linkage effects of the fintech and ordinary financial industries.
We interpret all the comparative results and present some implications and suggestions. In the next section, we explain new global and Korean trends in the fintech industry as well as its future.

4. Fintech Industry: Status and Classification

4.1. Current Status of Fintech Industry

In Korea, the fintech industry illustrates one of the core challenges of the future economy as per the government. However, the success of fintech in Korea is marked with difficulty. It Korea, the basic paradigm of the economic policies is based on a positive system. That is, all new businesses or services may be established only when there exist previous samples and/or with permitted regulation. The old legacy regulation system cannot allow fintech entrants into the market because of the latter’s novel services. Thus, there are serious invisible barriers for fintech startups in Korea. Even if the government creates a special deregulatory zone for fintech startups within a so-called regulatory sand box, most fintech startups would still be encumbered by excessive regulations on their new services and businesses [28]. For example, all online financial transactions were first based on public authentication under unified regulation. However, new fintech services with diverse IT infrastructure could not optimally perform in this system, leading the Korean government to eliminate the public unified authentication, though it was difficult for financial consumers and institutions to change their new platform. Similarly, there is excess regulation on new fintech services in Korea vis-à-vis the basic “positive system.”
Nonetheless, the fintech industry has been rapidly growing through the transformation of traditional financial institutions such as banks and insurance companies into enhanced smart financial services supported by fintech. In 2017, smart payments and online transfer services together accounted for 2.806 mn transactions amounting to ₩102.307 mn (US$ 95 bn) (Table 1). The growth rates of these services were 180.1 percent and 212 percent, respectively, compared with the previous year [28]. Most other fintech businesses showed similar growth rates as in Table 1.
As reported in Table 2, some startups in the new fintech services outperformed. Of the traditional financial institutions, new intermediaries for P2P loan and lending services showed a dramatic increase from ₩628.9 bn (US$ 5.24 bn) in 2016 to ₩2967.4 bn (US$ 24.72 bn) in 2018, attributed to the 194 companies in this category of fintech companies [28].

4.2. New Classification of the Fintech Industry

To examine the ripple effect of the fintech industry on all industries nationwide, we analyze the production inducing effect and value-added inducing effect using the DDM, supply shortage effect from the SIM and industry linkage effect including forward and background linkage effects. To examine the fintech industry in more detail, we more broadly reorganize or reclassify the fintech industry according to the industrial classification of the Korean Financial Services Commission (FSC).
Based on the Korean standard industrial classification, the FSC classified fintech industry into four categories: electronic financial provider, electronic financial assistant, financial computing industry (Bank) and new trend (Table 3). Among these subsectors, the new trend subsector consists of three IT-related fields: financial data analysis, financial software and financial platform. These business are extremely new and highly differentiated from the traditional financial industry, which consists of nine subsectors (e.g., S/W development and supply business; see Table 4). Because the electronic financial assistant subsector (e.g., information system operators and service companies) falls under the IT industry class, we could further classify the fintech industry into IT, finance and a new trend for financial support.
Shin (2018) simplified this classification into IT and finance only [4]. Based on this basic classification and the arguments presented above, we classify the fintech industry into four categories—information and communication technology (ICT) hardware, ICT services, software development and financial services (Table 4) [37].
To evaluate all the direct and indirect ripple effect of the fintech industry, we use the exogenous approach to the national economy represented by the input–output table. Table 5 reports the rearranged industry classification based on Table 5. Note that the last class, 33, includes all the fintech subsectors mentioned in Table 5; these include fintech banking, fintech insurance and (traditional) finance of banking and insurance. That is, we modified the 32 classifications of the original industries by introducing a new category for the fintech industry. Because some industries, such as class 24, consist of traditional finance sectors that already exist in class 33, we leave a blank for class 24. Similarly, there are several subsectors with overlapping input and output, which we leave as blanks in Table 5.

5. Empirical Evaluation and Results

5.1. Ripple Effects on the Demand-driven Model

As shown in Figure 1, we evaluate the production and value-added inducing effects based on the DDM in the first stage. Here, the production inducing effect implies the degree to which other industries must increase or induce production for the subject subsector to produce one unit of product. We find in Table 6 that, with a unit increase of production, fintech induced a value of ₩2.006 for all other industries. In the fintech industry, the fintech banking subsector induced ₩2.011 and insurance induced ₩2.071. On the other hand, the financial industry induced ₩1.674 overall, whereas its banking subsector induced ₩1.564 and insurance induced ₩1.836. This comparison shows that the fintech industry has a stronger production inducing effect. In the sub-sectoral comparison, the insurance subsector dominates the banking subsector. It is possible that the wide application of fintech data results in this industry’s higher performance in the production inducing effect.
With respect to the other industries, the fintech industry has a stronger production inducing effect on C05 chemicals, whereas the financial industry has a stronger production inducing effect on the J group of “Information and communication/broadcasting and newspaper and publishing.” This comparative result also supports the conclusion above—that is, wider application of ICT may result in higher performance in the production inducing effect.
As shown in Figure 2, the fintech industry has a stronger production inducing effect for both the direct and indirect effects compared with the financial industry. Especially, the indirect effect with respect to the other industry of fintech is 69 percent to 71.4 percent—higher than the financial industry. That is, fintech can better promote all other industries’ production inducement as a prompter that enhances the competitiveness of the national economy.
Table 7 reports the indirect production inducing effect for all the other industries nationwide. Overall, the fintech industry affects the secondary manufacturing industry at a 55.8 percent rate and affects the tertiary service industry at a 37.3 percent rate, which is much higher than the financial industry. Fintech has stronger effects on the secondary industry, whereas this holds true for the financial and tertiary industries. That is, the fintech industry has strong feasibility as a platform to induce other manufacturing industries’ production.
To examine the feasibility of fintech as a platform of the national economy, we evaluate the value-added inducing effect (Table 8). The value-added inducing effect implies the degree to which other industries should increase or induce value-added activities for the subject subsector to produce one more unit of added value.
Table 8 reports that, with a unit increase of added value, fintech induced ₩0.689 for all other industries. In the fintech industry, the fintech banking subsector induced ₩0.702 and fintech insurance induced ₩0.692. However, the financial industry induced ₩0.806 value overall, whereas its banking subsector induced ₩0.889 and insurance subsector induced ₩0.743. Thus, the fintech industry has a marginally lower value-added inducing effect. It is more manufacture-oriented as a platform of the national economy, whereas the financial industry is purely service-oriented, with higher value-added inducing effects on other industries.
With respect to the other industries, the fintech industry has a stronger value-added inducing effect on “professional, scientific and technical services” (M) as well as “nonmetallic mineral products” (C06), whereas the financial industry has a stronger production inducing effect on “information and communication/broadcasting, newspaper and publishing” (J) and “real estate services” (L). Compared with the production inducing effect, the value-added inducing effect on the subsector of “banking and insurance” is almost similar between fintech and financial industries.
For the value-added inducing effect, the financial industry has better performance than the fintech industry. Figure 3 represents a detailed understanding of the direct and indirect effects. The financial industry has a strong value-added inducing effect for both the direct and indirect effects, except in the banking sector. In the banking sector—the core of the financial industry—fintech has an indirect value-added inducing effect amounting to ₩0.230, with the financial industry trailing marginally at ₩0.221. Thus, the fintech industry also has a prominent role in transforming the banking sector for the fourth industrial revolution. The figure clearly shows that the portion of fintech’s indirect effect on the value-added inducing effect accounts for 32.5 percent, higher than that of the financial industry (29.2 percent). Thus, fintech is still a strong prompter for transformation of all industries.
Table 9 reports the indirect value-added inducing effect for all other industries nationwide with respect to the fintech and financial industries. Overall, the financial industry has a strong effect on the tertiary service industry (75.6 percent). The fintech industry affects the secondary manufacturing industry (41.3 percent) at a higher rate compared with the financial industry (19.6 percent). Thus, the financial industry affects selective concentration on service industries, whereas fintech exhibits more diverseness and equitability.

5.2. Supply-Driven Model and Supply Shortage Effect

To be feasible as a platform of the national economy, the fintech industry should exhibit a resilient effect even when there exists a negative shock of the supply shortage effect. Here, the supply shortage effect implies the degree to which other industries should decrease production for a demand shortage to decrease one more unit of production when evaluating the subject subsector.
Table 10 reports the results of the supply shortage effect. With a unit decrease of production, fintech induced a value reduction of ₩0.657 from all other industries’ reduced production. In the fintech industry, the fintech banking subsector induced a ₩0.715 decrease and fintech insurance induced a ₩0.614 decrease. Moreover, the financial industry induced a ₩1.011 value reduction overall, whereas the banking subsector induced a ₩1.422 reduction, which is the highest reduction from the supply shortage effect. Note that the difference is clearer when we compare each subsector rather than only fintech. The insurance industry has a stronger supply shortage effect for fintech, whereas the banking subsector has a far weaker effect. This sub-sectoral difference will grow further as most financial sectors transform into the fintech industry.
Regarding the supply shortage effect on other industries, the fintech industry has a stronger effect on “transportation equipment” (C12), whereas the financial industry has a stronger effect on “real estate services” (L). Overall, the fintech industry has a highly varying supply shortage effect on each subsector, with the most severe on manufacturing industries. Contrariwise, the financial industry does not exhibit such a trend across all industries but shows severe reduction for the service-oriented industries.
Table 11 reports the results of the indirect supply shortage effect on other industries for both the fintech and financial industries. Overall, the fintech industry strongly affects the manufacturing industry (63.8 percent), followed by the service sector (34.8 percent). The financial industry affects the manufacturing industry (53.7 percent) strongly. Thus, the service sector is not differentiated with respect to the fintech and financial supply shortage effects, though we find a stronger supply shortage effect on the manufacturing industry by the fintech industry’s supply shortage effect. The primary industry, such as agriculture, does not indicate any serious negative supply shortage effect, because the fintech and financial industries here accounted for only 1.4 percent and 1.7 percent, respectively.

5.3. Industry Linkage Effect

To analyze the feasibility of the fintech industry as a platform for sustainable development, we examine the interindustry linkage effect in the final stage. Table 12 reports the empirical results of this evaluation.
The industry linkage effect comprises the forward and background linkage effects. The former is measured by the sensitivity coefficient and is defined as the outputs of the concerned subject subsector used as the inputs of the other industries. The former is measured by the influence coefficient—the produced outputs of all other industries for the concerned subject subsector used as the inputs to increase one unit of output.
There are four types of industries based on this linkage effect:
  • If all the forward and background linkage effects are higher (than 1), the industry falls under intermediate demand-oriented manufacturing.
  • If the forward linkage effect is higher than the background linkage effect, then the industry is intermediate demand-oriented primitive.
  • The final demand-oriented manufacturing industry has weak forward linkage and strong background linkage effects.
  • Finally, the final demand-oriented primitive industry has weak forward and background linkage effects [41].
Table 12 reports the results of the interindustry linkage effect. Except for the insurance subsector, all the other five subsectors measure a forward linkage effect valued over 1 and a background linkage effect lower than 1. Thus, these industries are intermediate demand-oriented primitive industries. Nonetheless, the fintech industry has a stronger forward linkage effect for all subsectors compared with the financial industry. That is, the fintech industry can more effectively promote all other industries.

6. Conclusions

The fourth industrial revolution is one of the most important trends, indicating a paradigm shift from productivity-oriented competition to value creation based on network management of innovation [43]. Innovation herein entails creative destruction of the legacy system, which is also the foundation of the fourth industrial revolution.
The fourth industrial revolution has a powerful effect in transforming all nationwide economic structures and business models thereof. This makes fintech a critical feature of this revolution because it also promotes the transformation of all legacy systems across the national economy.
In the literature, there are varying arguments on fintech’s feasibility as a prompter for qualitatively transforming the economic infrastructure into an advanced one. Most of these discussions have dealt with fintech as an expansion of the ordinary or traditional financial industry. In our research, we assumed the fintech industry as having a wider and more inclusive role in transforming all industries toward value creation networking. This networking becomes the platform for sustainable innovation of the national economy because it implies that all participants of the fintech revolution shall voluntarily create and share new values [44]. We thus employed an interindustry analysis to examine the feasibility of fintech in this regard and found that it does create enhanced values for both the forward and background linked industries.
We summarize our contributions in the form of important implications and suggestions below:
First, the production inducing effects in DDM, SDM and industry linkage effects show that fintech is supportive for all other industries, especially manufacturing industries, in terms of inducing more production and supply, whereas the effect of the ordinary financial industry is limited on the financial subsector and its surrounding service sectors. The fintech industry has strong industry linkage effects for forward and background industries, implying that all participants through collaborative networks of innovation could realize a sustainable fintech industry.
Second, the fintech industry has positive and even interindustry linkage effects on all industries nationwide. Thus, its role is not only limited to the extension of the financial industry. In the production inducing effect, the financial industry affected the primary industry at a rate of 4.3 percent, the secondary industry at 31.7 percent and the tertiary industry at 64 percent, whereas these percentages were respectively 7.0 percent, 55.8 and 37.3 percent for the fintech industry (e.g., Table 8) Thus, the fintech industry is not a part of the financial industry per se but could be a platform or prompter to induce almost all industries evenly.
We also found that the fintech industry could be an effective prompter for sustainable development of the national economy. This is because its indirect and direct effects allow for diverse uses of financial technologies in financial/monetary-related activities as well as complementary automatic synchronized economic activities. Indeed, under fintech, such activities can be executed with higher security through technologies such as blockchain. This creates an advanced, creative smart infrastructure and surrounding ecosystem. To maintain circular innovation, fintech can harmonize technological innovation and organizational transformation for all participants [11,30,31].
However, the direct and indirect effects of the value added, inducing effect of DDM are lower in the fintech industry than in the financial industry. These results imply the limitations of the current fintech industry in Korea. In this regard, South Korean fintech policy has a positive system of regulation, as stated earlier. Thus, a new startup, including any fintech startup, has serious psychological and practical barriers. In China, new and innovative startups are supported by Alipay and other e-payments within the fintech industry. Such developments are possible at least in the initial stages because of China’s negative regulation system. Therefore, the Korean government should also change its political paradigm from the current positive regulation to newer negative regulations.
Despite the Korean government’s promotion of new startups, especially in the fintech industry, through some deregulation, the current policies still lead to invisible and unexpected regulations under the broader positive system. Thus, deregulation has only limited scope in supporting fintech innovation. Instead, developing economies should radically reform their regulatory system to allow fintech to become a strong prompter. Such policies should be the global norm. The fintech industry is expected to create greater conflicts among interest groups, especially from traditional, substitutable companies. Thus, governments should seek to resolve such conflicts proactively by promoting innovation as universally beneficial in the long term.
This study confirms that the fintech industry contributes to the growth promotion of many other industries unlikely by the traditional financial industry, as an innovation platform for all industries for sustainable growth. Nevertheless, this study has the following limitations.
First, this study has limitations using the data from 2015. Therefore, it is necessary to prove the feasibility as an innovation platform of the fintech industry by comparing the differences with this study in future studies. In addition, as seen in the literature, fintech has a different value depending on how it is used in various industries. However, this study only considers the economic aspects, so it is not possible to propose a way to contribute to the added values and economic growth promotion, through various applications of fintech. Therefore, in the future research, it is necessary to conduct research that can make strategic proposals to individual companies that want to apply it through research on various applications of fintech. Such a study would be a practical way to promote the sustainable growth of all industries.

Author Contributions

The authors contributed to each part of the paper by: conceptualization, Y.C.; methodology, Y.J.S.; software, Y.C.; validation, Y.C.; formal analysis, Y.C.; investigation, Y.J.S; resources and data curation, Y.J.S.; writing—original draft preparation, Y.C.; writing—review and editing, Y.C.; supervision, Y.J.S.; project administration, Y.J.S.; funding acquisition.

Funding

Inha University Research Fund supported this work.

Conflicts of Interest

The authors declare no conflict of interest.

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Figure 1. Research process.
Figure 1. Research process.
Sustainability 11 05351 g001
Figure 2. Production Inducing Effects.
Figure 2. Production Inducing Effects.
Sustainability 11 05351 g002
Figure 3. Value-Added Inducing Effects.
Figure 3. Value-Added Inducing Effects.
Sustainability 11 05351 g003
Table 1. Use Status of Simple Payment Service (Based on Daily Average) (Unit: 1000 cases; ₩, in millions).
Table 1. Use Status of Simple Payment Service (Based on Daily Average) (Unit: 1000 cases; ₩, in millions).
2016(A)2017(B) (B-A)
1/42/43/44/4
Number of uses1002.2
(-)
2806.8
(180.1)
1644.6
(9.2)
2458.3
(49.5)
3398.7
(38.3)
3696.6
(8.8)
1804.6
Amount used32,793.6
(-)
102,306.6
(212.0)
62,261.2
(19.0)
84,215.6
(35.3)
115,578.0
(37.2)
146,104.2
(26.4)
69,513.0
Note: The values in parentheses indicate increasing and decreasing rates compared with the previous quarter in percentage. Source: Korea Financial Supervisory Service (2018) [28].
Table 2. P2P Cumulative Loans and Loan Balance Scale (Unit: ₩100 mn; %).
Table 2. P2P Cumulative Loans and Loan Balance Scale (Unit: ₩100 mn; %).
16 End17.3 End17.6 End17.9 End17 End18.3 End
Accumulated loan amount6289962813,98118,46123,40029,674
QoQ increase-+3339+4353+4480+4939+6274
QoQ growth rate-53.145.232.026.826.8
Loan balance4140436061087300829610,013
QoQ increase-+220+1748+1192+996+1717
QoQ growth rate-5.340.119.513.620.7
Note: 65 companies based on Korea P2P Financial Association. Source: Korea Financial Supervisory Service (2018) [28].
Table 3. Classification of Fintech Companies in Korea’s Standard Industry Classification.
Table 3. Classification of Fintech Companies in Korea’s Standard Industry Classification.
DivisionDetailStandard Industry Classification *
Financial Committee interpretationElectronic financial providerElectronic money transfer, prepayment method and electronic payment settlementFinance and insurance
(Financial support service industry)
Electronic currency issuance management, direct payment electronic payment method and payment scheduled businessFinance and insurance
(Unclassified financial business)
Electronic financial assistantCard VAN and Bank VAN.Finance and insurance
(Financial support service industry)
Information system operators and service companies.ICT Industry
Financial computing industry (Bank)Data processing transmission program provided, computer system sales lease and data relay processing supplementary communication serviceICT Industry
New trendFinancial data analysis, financial software, financial platformICT industry or
finance and insurance
Classification for convenience of banknotesNine areas, such as S/W Development supply businessICT industry
Other financial support servicesFinance and insurance
(Financial support service industry)
Note: * The shaded areas are classified by the authors because they are unclear in the standard industry classification by the Korean government. Source: Financial Services Commission Press Release (November 27, 2018) [43].
Table 4. Fintech Industry Classification Based on Input–output tables.
Table 4. Fintech Industry Classification Based on Input–output tables.
Classification No Industry SectorFintechFinTech BankingInsuretechFinanceBankInsurance
ICT hardware079Electricity conversion. Supply control deviceOOONot applicable
080BatteryOOO
081Other electrical equipmentOOO
082SemiconductorOOO
083Electronic display deviceOOO
084Printed circuit boardOOO
085Other Electronic ComponentsOOO
086Computers and PeripheralsOOO
087Communication and broadcasting equipmentOOO
Communication services128Wired and wireless communication serviceOOO
129Other Telecommunications ServicesOOO
131Information serviceOOO
IT services132Supply of software developmentOOO
133Computer Management ServicesOOO
Finance137 Banking servicesOONot applicableOONot applicable
138Insurance ServicesONot applicableOONot applicableO
139Financial and Insurance Assistance ServicesOOOOOO
Table 5. Industry Classification for the Analysis of Input–Output Analysis.
Table 5. Industry Classification for the Analysis of Input–Output Analysis.
No.CodeSectorNo.CodeSectorNo.CodeSector
1AAgriculture, forestry and fisheries products12C10Electrical equipment23JInformation and communication/broadcasting and newspaper and publishing
2BMinerals13C11Machinery and equipment24K()/insurance/banking/()
3C01Food and beverage14C12Transportation equipment25LReal estate services
4C02Textiles and leather products15C13Other manufacturing products26MProfessional, scientific and technical services
5C03Wood and paper and printing16C14Manufacturing and industrial equipment repairs27NBusiness services
6C04Coal and petroleum products17DElectricity, gas and steam28OPublic administration, defense and social security
7C05Chemicals18EWater, waste disposal and recycling services29PEducation services
8C06Nonmetallic mineral products19FConstruction30QHealth and social services
9C07Primary metal products20GWholesale and retail trade services31RArts, sports and leisure services
10C08Fabricated metal products21HTransportation services32SOther services
11C09Computers, electronics/ precision instruments22IAccommodation and food services33GoalFintech/fintech banking/insuretech
finance/bank/insurance
Table 6. Results of the Production Inducing Effects.
Table 6. Results of the Production Inducing Effects.
CodeProduction Inducing EffectsFintechFintech BankingInsuretechFinanceBankInsurance
EffectsRankEffectsRankEffectsRankEffectsRankEffectsRankEffectsRank
AAgriculture, forestry and fisheries products0.009 210.009 200.009 220.008 170.007 160.009 18
BMinerals0.031 60.033 60.034 60.013 120.012 120.015 13
C01Food and beverage0.025 100.025 90.026 90.024 60.022 70.028 7
C02Textiles and leather products0.013 160.013 170.013 180.010 140.009 140.012 15
C03Wood and paper and printing0.007 230.007 230.007 240.011 130.011 130.010 16
C04Coal and petroleum products0.021 130.022 130.023 140.009 150.009 150.010 17
C05Chemicals0.082 10.086 10.091 10.022 80.020 80.026 9
C06Nonmetallic mineral products0.012 170.013 160.014 170.002 300.002 300.002 31
C07Primary metal products0.027 70.028 70.030 70.006 200.006 200.007 21
C08Fabricated metal products0.014 150.015 150.015 160.006 210.006 210.006 22
C09Computers and electronics/precision instruments0.009 190.010 190.010 200.018 100.018 100.019 12
C10Electrical equipment0.023 110.024 100.026 100.007 190.007 170.008 20
C11Machinery and equipment0.011 180.012 180.013 190.004 270.003 270.004 28
C12Transportation equipment0.007 220.008 220.008 230.004 240.004 230.005 25
C13Other manufacturing products0.004 260.004 270.004 270.004 230.003 260.005 24
C14Manufacturing and industrial equipment repairs0.023 120.024 110.025 110.007 180.007 180.00819
DElectricity, gas and steam0.034 50.035 50.037 50.017 110.015 110.021 10
EWater, waste disposal and recycling services0.004 240.004 250.005 250.004 260.003 280.004 27
FConstruction0.003 280.003 290.003 290.003 280.003 290.004 29
GWholesale and retail trade services0.049 20.051 20.054 20.024 70.022 60.027 8
HTransportation services0.039 40.041 30.043 30.020 90.020 90.021 11
IAccommodation and food services0.026 80.026 80.027 80.031 50.028 50.034 6
JInformation and communication/broadcasting and newspaper and publishing0.016 140.017 140.018 150.073 10.078 10.067 2
K()/insurance/banking/() 0.005 240.025 12 0.004 220.054 4
LReal estate services0.025 90.023 120.025 130.045 40.040 40.058 3
MProfessional, scientific and technical services0.041 30.039 40.040 40.048 30.045 30.054 5
NBusiness services 0.061 20.054 20.070 1
OPublic administration, defense and social security0.000 300.000 310.001 310.000 310.000 320.001 32
PEducation services0.001 290.001 300.001 300.002 290.002 310.003 30
QHealth and social services0.003 270.003 280.003 280.005 220.004 240.006 23
RArts, sports and leisure services0.004 250.004 260.004 260.004 250.004 250.005 26
SOther services0.009 200.008 210.009 210.009 160.006 190.012 14
Indirect effect0.573 28.6%0.594 29.5%0.643 31.0%0.501 29.9%0.473 30.2%0.614 33.4%
Direct effect1.43371.4%1.41770.5%1.42869.0%1.17370.1%1.09169.8%1.22266.6%
Total effect2.006 100.0%2.011 100.0%2.071 100.0%1.674 100.0%1.564 100.0%1.836 100.0%
Table 7. Rate of Production Inducing Effects.
Table 7. Rate of Production Inducing Effects.
FintechFintech BankingInsuretechFinanceBankInsurance
Primary industry0.040 7.0%0.041 7.0%0.043 6.8%0.021 4.3%0.019 4.1%0.025 4.0%
Secondary industry0.320 55.8%0.334 56.2%0.350 54.5%0.159 31.7%0.146 30.8%0.180 29.3%
Tertiary industry0.214 37.3%0.219 36.9%0.249 38.7%0.321 64.0%0.308 65.1%0.410 66.7%
Table 8. Results of Value-Added Inducing Effects.
Table 8. Results of Value-Added Inducing Effects.
CodeValue Added Inducing EffectsFintechFintech BankingInsureTechFinanceBankInsurance
EffectsRankEffectsRankEffectsRankEffectsRankEffectsRankEffectsRank
AAgriculture, forestry and fisheries products0.005 140.005 140.005 150.004 120.004 120.005 13
BMinerals0.017 50.017 40.018 50.007 80.006 80.008 9
C01Food and beverage0.004 150.004 150.005 160.004 130.004 130.005 14
C02Textiles and leather products0.004 170.004 170.004 180.003 170.003 160.003 18
C03Wood and paper and printing0.003 220.003 220.003 230.004 140.004 140.004 17
C04Coal and petroleum products0.003 200.003 200.003 210.001 240.001 240.001 25
C05Chemicals0.023 30.024 30.026 30.006 90.006 100.007 11
C06Nonmetallic mineral products0.004 160.004 160.004 170.001 300.001 310.001 31
C07Primary metal products0.005 120.006 120.006 130.001 250.001 260.001 27
C08Fabricated metal products0.005 130.005 130.005 140.002 200.002 190.002 23
C09Computers and electronics/precision instruments0.003 210.003 210.003 220.006 110.006 90.006 12
C10Electrical equipment0.007 100.007 100.008 110.002 190.002 180.002 20
C11Machinery and equipment0.003 190.004 180.004 190.001 280.001 280.001 29
C12Transportation equipment0.001 260.001 270.001 270.001 290.001 300.001 30
C13Other manufacturing products0.001 280.001 290.001 290.001 270.001 290.001 26
C14Manufacturing and industrial equipment repairs0.011 80.012 80.012 90.004 150.003 150.004 16
DElectricity, gas and steam0.012 70.012 70.013 80.006 100.005 110.007 10
EWater, waste disposal and recycling services0.002 230.002 230.002 240.002 220.002 220.002 22
FConstruction0.001 270.001 280.001 280.001 260.001 270.001 28
GWholesale and retail trade services0.026 20.027 10.028 10.013 50.012 50.014 6
HTransportation services0.016 60.017 60.017 60.008 70.008 70.008 8
IAccommodation and food services0.008 90.008 90.008 100.010 60.009 60.011 7
JInformation and communication/broadcasting and newspaper and publishing0.006 110.006 110.006 120.038 20.041 10.035 4
K()/insurance/banking/() 0.002 240.017 7 0.001 230.037 3
LReal estate services0.019 40.017 50.018 40.033 30.029 30.043 2
MProfessional, scientific and technical services0.028 10.027 20.028 20.024 40.023 40.027 5
NBusiness services 0.042 10.038 20.048 1
OPublic administration, defense and, social security0.000 300.000 310.000 310.000 310.000 320.000 32
PEducation services0.001 290.001 300.001 300.001 230.001 250.002 24
QHealth and social services0.002 250.002 260.002 260.002 180.002 200.003 19
RArts, sports and leisure services0.002 240.002 250.002 250.002 210.002 210.002 21
SOther services0.003 180.003 190.004 200.003 160.003 170.005 15
Indirect effect0.22432.5%0.23032.8%0.25737.1%0.23529.2%0.22124.9%0.30140.5%
Direct effect0.46567.4%0.47267.2%0.43663.0%0.57170.8%0.66775.0%0.44259.5%
Total effect0.689100.0%0.702100.0%0.692100.0%0.806100.0%0.889100.0%0.743100.0%
Table 9. Rate of Value-Added Inducing Effects.
Table 9. Rate of Value-Added Inducing Effects.
FintechFintech BankingInsureTechFinanceBankInsurance
Primary industry0.021 9.4%0.022 9.5%0.023 9.0%0.011 4.8%0.010 4.6%0.013 4.3%
Secondary industry0.093 41.3%0.097 42.1%0.102 39.6%0.046 19.6%0.042 19.1%0.052 17.3%
Tertiary industry0.110 49.2%0.111 48.4%0.132 51.4%0.178 75.6%0.169 76.3%0.236 78.4%
Table 10. Results of the Supply Shortage Effects.
Table 10. Results of the Supply Shortage Effects.
Supply Shortage EffectsFintechFintech BankingInsureTechFinanceBankInsurance
EffectsRankEffectsRankEffectsRankEffectsRankEffectsRankEffectsRank
AAgriculture, forestry and fisheries products0.008 230.009 240.007 260.016 220.021 230.005 24
BMinerals0.001 300.001 310.001 310.002 310.003 320.001 32
C01Food and beverage0.039 50.040 50.035 50.052 70.066 80.024 8
C02Textiles and leather products0.006 260.007 270.006 270.009 250.012 260.004 26
C03Wood and paper and printing0.002 290.002 300.002 300.003 300.004 310.002 31
C04Coal and petroleum products0.021 120.022 130.019 110.026 170.035 160.011 19
C05Chemicals0.057 40.060 40.054 40.062 50.080 60.029 5
C06Nonmetallic mineral products0.008 240.009 250.008 240.011 240.014 250.005 25
C07Primary metal products0.031 70.033 70.028 70.040 90.053 100.017 15
C08Fabricated metal products0.020 130.021 140.018 130.027 160.034 170.013 16
C09Computers and electronics/precision instruments0.012 190.012 200.012 180.069 40.085 50.039 2
C10Electrical equipment0.029 90.031 90.030 60.024 190.030 200.013 17
C11Machinery and equipment0.030 80.031 80.028 80.038 100.048 110.019 11
C12Transportation equipment0.072 10.076 10.069 10.076 30.099 30.034 3
C13Other manufacturing products0.005 270.005 280.004 280.005 280.007 290.003 30
C14Manufacturing and industrial equipment repairs0.011 200.012 210.011 210.012 230.015 240.007 23
DElectricity, gas and steam0.015 170.016 180.013 160.024 180.033 180.008 20
EWater, waste disposal and recycling services0.004 280.004 290.003 290.005 290.006 300.004 27
FConstruction0.058 30.060 30.056 20.060 60.075 70.033 4
GWholesale and retail trade services0.059 20.061 20.055 30.077 20.093 40.046 1
HTransportation services0.025 100.026 110.023 90.034 120.043 130.018 13
IAccommodation and food services0.023 110.024 120.020 100.037 110.047 120.018 12
JInformation and communication/broadcasting and newspaper and publishing0.010 220.011 230.010 230.027 150.032 190.018 14
K()/insurance/banking/() 0.027 100.018 12 0.119 20.027 6
LReal estate services0.032 60.034 60.013 170.114 10.163 10.019 10
MProfessional, scientific and technical services0.011 210.011 220.011 220.048 80.060 90.025 7
NBusiness services 0.008 270.010 280.003 29
OPublic administration, defense and social security0.016 150.016 170.012 200.030 130.041 140.011 18
PEducation services0.016 160.016 160.014 150.020 200.026 210.007 21
QHealth and social services0.017 140.017 150.014 140.030 140.035 150.021 9
RArts, sports and leisure services0.007 250.007 260.007 250.008 260.010 270.003 28
SOther services0.013 180.014 190.012 190.018 210.024 220.007 22
Indirect effect0.657 0.715 0.614 1.011 1.422 0.494
Table 11. Rate of Supply Shortage Effects.
Table 11. Rate of Supply Shortage Effects.
FintechFintech BankingInsureTechFinanceBankInsurance
Primary Industry0.010 1.4%0.010 1.4%0.008 1.2%0.018 1.7%0.024 1.7%0.006 1.2%
Secondary industry0.419 63.8%0.439 61.5%0.397 64.6%0.542 53.7%0.694 48.8%0.264 53.4%
Tertiary industry0.229 34.8%0.265 37.1%0.210 34.2%0.451 44.6%0.705 49.6%0.224 45.4%
Table 12. Results of the Interindustry Analysis.
Table 12. Results of the Interindustry Analysis.
Forward Linkage EffectRankBackground Linkage EffectRank
Fintech3.0521/310.89022/31
Fintech banking3.1601/320.89422/32
Insuretech2.6851/320.93820/32
Finance1.10111/320.72228/32
Bank1.07713/330.66531/33
Insurance0.65724/330.81828/33

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MDPI and ACS Style

Shin, Y.J.; Choi, Y. Feasibility of the Fintech Industry as an Innovation Platform for Sustainable Economic Growth in Korea. Sustainability 2019, 11, 5351. https://0-doi-org.brum.beds.ac.uk/10.3390/su11195351

AMA Style

Shin YJ, Choi Y. Feasibility of the Fintech Industry as an Innovation Platform for Sustainable Economic Growth in Korea. Sustainability. 2019; 11(19):5351. https://0-doi-org.brum.beds.ac.uk/10.3390/su11195351

Chicago/Turabian Style

Shin, Yong Jae, and Yongrok Choi. 2019. "Feasibility of the Fintech Industry as an Innovation Platform for Sustainable Economic Growth in Korea" Sustainability 11, no. 19: 5351. https://0-doi-org.brum.beds.ac.uk/10.3390/su11195351

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