Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 Digital Provide: from Information Asymmetry to ICT Impacts on Bond Market Development. Lithuania Case Ieva Astrauskaitė The capital and ICT markets complementation and a lack of market drivers for the fluent corporate debt market development in Lithuania, stimulates a research in relationship with ICT parameters. With the purpose to test the role of ICT on the growth of the Lithuanian bond market, Gompertz technology diffusion model is adjusted. The empirical results highlight that it is not enough of supportive evidence that the hypotheses about growing ICT measures insignificance on country’s bond market development could be neither approved nor rejected. Key words: bond market, ICT, information asymmetry, Gompertz model. JEL Codes: G14 and G31. 1. Introduction With the wide penetration of information and telecommunication technologies (ICT), the world is coming back to the informational issues which were stated in early ages, although different approaches are taken. In 1980s, the most researches were based on the incompleteness of the information and its sequences, models were constructed. Meanwhile, nowadays, information security is emphasized in the meaning of the large amounts and quick spread across the world. The importance of the relevant and correct information was indicated in studies of Merton (1987) who states that the acquisition of information and its dissemination to other economic units are central activities in all areas of finance, and especially so in capital markets. In particular, asset pricing models typically assume both that the diffusion of every type of publicly available information takes place instantaneously among all investors and that investors act on the information as soon as it is received. Gilles (1992) in his economic review “Technological choice, financial market and economic development” agreed on the importance of capital market and information by stating that capital markets as making possible the spreading of risk through financial diversification in contact with information. Without such markets, agents can limit risk only by choosing less specialized and less productive technologies (technological diversification). Although the author substituted the technologies and capital markets, nowadays, the complementation is being observed and measured. Different studies and parameters rely on the growth of technological sectors, and there is no exception in capital market. Lack of market drivers for the fluent corporate debt market development in Lithuania, stimulates a research in relationship with ICT parameters. The purpose of this paper is to test of the role of ICT on the growth of the Lithuanian bond market. The paper contains of four sections. While the first section gives a short description of the topic, the second section briefly summarizes the literature on information asymmetry, technological growth and its relationship. Section No 3 represents the methodology, which was adjusted and implemented according to the main purpose of the paper. Section No 4 contributes to empirical findings and their interpretation. Conclusions are made. Ieva Astrauskaitė, PhD candidate, Department of Finance, Faculty of Economics, Vilnius University, Lithuania, E-mail: ieva.astrauskaite@ef.vu.lt Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 2. Literature Review To begin with the first information asymmetry manisfestations arised from the perfect capital market description which was introduced by Modigliani and Miller (1958). Authors emphasized the perfect capital market theory: holding a value of a firm to be independent of its capital structure (debt/equity ratio) is accepted as an implication of equilibrium in perfect capital markets. However, Stiglitz (1969) had re-examined the Modigliani-Miller theorem by arguments that the cost of capital for a firm was independent of the debt-equity ratio. The theorem does not depend on the existence of risk classes, on the competiveness of the capital market, or on the agreement of individuals about the probability distribution of outcomes. Although, he agreed that M-M could be valid if there were limitations on individual borrowing. Furthermore, Stiglizt and Weiss (1981) did construct the equilibrium model with the credit rationing and a lot of borrowers and banks and defined effects derived by imperfect information: 1) The adverse selection effect (sorting particular borrowers); different borrowers have different probabilities of repaying loan. 2) The incentive effect (affecting the actions of borrowers); when interest rate changes the behavior of the borrowers changes as well. In favor with these findings, Merton (1987) expressed his strong belief on financial models based on frictionless markets and complete information that are often inadequate to capture the complexity of rationality in action. He introduced model of capital market equilibrium with incomplete information and came to conclusion that less well-known stocks of firms with smaller investor bases tend to have relatively larger expected returns than in the comparable complete-information model. Financial markets dominated by rational agents may nevertheless produce anomalous behavior relative to the perfectmarket model. Institutional complexities and information costs may cause considerable variations in the time scales over which different types of anomalies are expected to be eliminated in the market place. Whether or not the specific information inefficiency posited can be sustained in the long run, the model may nevertheless provide some intermediate insights into the behavior of security prices. However, Merton (1987) also agreed on the perfect-market model being a useful abstraction for financial analysis in the long run. Further examinations about information asymmetry continued on the uncertainty related to allocation of resources problems were made by Arrow (1962) He stated information as a commodity, explaining that an entrepreneur would automatically acquire knowledge of demand and production conditions in his field which was available to others only with special effort. Arrow believed in information that will frequently have an economic value, in the sense that anyone possessing the information can make greater profits than would otherwise be the case. This belief is proved in nowadays by Wilhelm (2001) who indicated that the institutions develop to protect property rights over information goods. This occurs at both the level of information-intensive financial products and services and at the level of the intermediaries that use these products and services to promote exchange of strategic information. Later on Healy and Palepu (2001) in their research on information asymmetry, corporate disclosure, and the capital markets indicate that a critical challenge for any economy is the optimal allocation of savings to investment opportunities. There are usually many new entrepreneurs and existing companies that would like to attract household savings, which are typically widely distributed, to fund their business ideas. Matching savings to business investment opportunities is complicated for better information that firms usually possess comparing to savers about the value of business investment Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 opportunities and incentives to overstate their value. Savers, therefore, face an “information problem” when they make investments in business ventures. Authors agreed on increased the value of reliable information in capital markets. Eggleston et al (2002) emphasizes the basic premise is that information and communication are valuable commodities. It can enhance the functioning of markets critical for the well-being of the poor. As producers and consumers communicate through prices, in the developed world, markets perform well because the prices of goods are known or can be found with minimal effort. However, in developing nations, especially in rural areas, such signals flow sluggishly, if at all. As a result, farmers often produce the wrong mixture of crops, often using inefficient technologies, and consumers do not receive goods even though they are willing to pay the market price. The result is inefficiency. Searching for solution on information asymmetry, Wilhelm (2001) described financial markets as markets for information. As such, they are directly influenced by advances in information dissemination, storage, and processing associated with the commercial development of the Internet. On the other hand, given the long-standing centrality of information in financial markets, the consequences of the Internet for financial markets can be understood as evolutionary rather than revolutionary. The same is true in the securities markets, where the scope of human judgment is being leveraged and sometimes displaced by electronic order-processing systems, electronic limit order books, and electronic auctions. Nowadays the main distributor of information is information and communication technologies. Further studies examined their importance on capital market, firms’ values, and productivity. Berndt and Morrison (1995) find some evidence that industries with a higher proportion of high-tech capital have higher measures of economic performance, although within industries increasing total physical capital stock does not appear to improve economic performance. Welfens (2005) found out that high productivity growth in ICT production and productivity effects from the use of ICT have raised economic growth in most OECD countries and several NICs. The share of ICT in output growth doubled from about 5% in the US and Germany in the early 1990s to 10% by the end of the century. Moving to the firm level Santos et al (1993) determined whether investments in information technology (IT) have an impact on firm performance. With a sample of 97 IT investments from firms in finance and manufacturing industries authors found no excess returns for either the full sample or for any one of the industry subsamples. However, cross-sectional analysis revealed that the market reacts differently to announcements of innovative IT investments than to follow up, or non-innovative investments in IT. Innovative IT investments increase firm value, while non-innovative investments do not. Furthermore, the market's reaction to announcements of innovative and non-innovative IT investments is independent of industry classification. These results indicate that, on average, IT investments are zero net present value (NPV) investments; they are worth as much as they cost. Innovative IT investments, however, increase the value of the firm. Moreover, Bharadway et al (1999) studies Tobin's q, a financial market-based measure of firm performance and examine the association between IT investments and firm q values, after controlling for a variety of industry factors and firm-specific variables. The results based on data from 1988–1993 indicate that, in all of the five years, the inclusion of the IT expenditure variable in the model increased the variance explained in q significantly. The results also showed that, for all five years, IT investments had a significantly positive association with Tobin's q value. Results are consistent with the notion that IT contributes to a firm's future performance potential, which a forward-looking measure such as the q is better able to capture. Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 Further economic and ICT relationship was introduced by Eggleston et al (2002) who defined the theory of information and market signals and the available evidence on the relationship between market integration and economic development that suggested that greater access to ICTs, starting with basic communications infrastructure, could significantly improve the living standards of the world’s rural poor by enhancing the functioning of relevant markets. Income gains Effective markets Information for economic decisions Information technology Fig. 1: “Digital provide.” Source: Eggleston et al (2002) Digital provide boosts incomes and ultimately leads to economic growth. ICTs have the ability to disseminate information to isolated, information-deprived locales. Those receiving this information will be able to participate in effective markets. In consequence there should be income gains for participants. Over the long term, enhanced access to information should enable producers to significantly improve their practices. Such improvement lays the path to economic growth. All theoretical findings come to conclusion of information asymmetry solution by ICT, thus providing economic growth, micro level productivity, the niche markets performance increase. The number of empirical studies supplements the theory either by identifying the particular ICT growth indicators or concluding statements on country cases. Double kind research directions are marked: 1) ICT growth for capital market development; 2) capital market development for ICT growth. For example, Yartey (2006) research data from 76 countries shows that the credit and capital markets development is determined by ICT development. The conclusion is that countries with underdeveloped financial markets will sink in using ICT. On the other hand, Bhunia (2011) found out that the most ICT driven factors were the increase of the number of securities brokers, the number of investors and the better access to ICT. Ezirim et al (2009) states that growth in market capitalization is affected by the level of interaction between stockbrokers and investors brought about by ICT in the form of internet access, telephone (mainlines and mobile) as well as access to the websites of stockbrokers. Growth in the total volume and value of shares traded is significantly affected by communication technology (telephones). The number of securities listed on the Stock Exchange as well as the growth in federal and state government bonds does not appear to have any significant relationship with the adoption of information and communication technology. Private debt stock appears to have been significantly affected by information and communications technology especially in respect of increase in the number of stockbrokers and access to ICT. Generally, Information Technology has contributed to growth of the Nigerian Capital Market, with the effect mostly seen in the availability of information to investors and the improvements in the trading patterns of the Nigeria Stock Exchange. To sum up, the evolution of theoretical research could be divided into information asymmetry and the equilibrium models with it, resource allocating problems caused by Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 information imperfections, informational and technological relationship as well as doubled sided effects on productivity and growth measures, meanwhile tested empirically. 3. The Methodolody The most popular model for the growth measurements is a model derived by British mathematician B. Gompertz to develop actuarial tables. In the model’s origin Gompertz was concerned in decreasing numbers (of suvivors). However, widely accepted and applied model version with a changed sign for the rate parameter (k), changed the equation into a model for increasing growth (Berger, 1980): Y=exp(-b*exp(-kt)) (1) Where t is a moment of time; b is a position parameter that positions the origin of the transformed line onto the vertical axis at time t=0. Gompertz’s growth model the most frequently was used by ecologists to explain biological phenomena. However, because of strong relationship with logistic model, both models rate parameters can be obtained by the slope values of simple linear regression. Therefore, empirical model application was transformed by Chow in 1983 and called Gompertz technology diffusion model: log ηit -log ηit-1 = θi [log ηi* -log ηit -1] (2) Where ηit is ICT use in country I in year t; ηi* is post diffusion equilibrium level; θi is the speed of adjustment. Further model’s application’s development was proceeded by Yartey (2006). Author adopted the origin of Gompertz model for examination of the relationship between ICT as the dependent variable and the factors that impact change in the level of ICT as the independent variables: log Yi* = αi + βilog Xit + εit (3) Where Y represents dependent variable chosen; X is constrained of ICT developments measures; while αi, βi being a parameter values (coefficients), εit – standard deviation. Recent empirical findings on ICT growth and stock market in India (Bhunia, 2011) as well as in Nigeria (Ezirim et al, 2009) and vice versa, proves of financial development’s impact on country ICT diffusion on a sample of 76 developed and developing countries (Yartey, 2006) had verified this equation. These were the reasons for the model adoption to test of the role of ICT on the growth of the Lithuanian bond market, which is categorized in the same group of development with India and Nigeria by Bank of International Settlements. Coming back to the routes of the model, a linear regression equation was used in logarithm of the dependent and independent variables. Due to the lack of the data provided by the national office of Statistics and in compliance with the classical regression rules, there were several regression equations calculated. As the dependent variable was bond market development in Lithuania, further representing variables were chosen: exchange capitalization in billion litas (Y1), number of bond issues (Y2), total value of issued bond par in million litas (3), the attracted funds in million litas (Y4). The independent variables followed per cent of 16-74 year old inhabitants Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 that in the last 3 months were using the computer (X1), per cent of 16-74 year old inhabitants that in the last 3 months were using the Internet (X2), number of mobile phone subscribers per 100 of population (X3), number of public fixed telephone lines per 100 of population (X4), broadband penetration per 100 population (X5), per cent of companies that are using information technology: Internet access (X6), per cent of companies that are using information technology: broadband Internet access (X7). These independent parameters were separated into segmented groups for the regression with each dependent variable. Available data was at the common period of 2003 – 2012 (10 years). The following hypothesis was arisen - H1: Growing ICT measures are not of significant impact to country’s bond market development. The calculated regressions were reviewed on the statistical significance by the t-test of individual parameters and F-test of overall equation. Coefficient of determination (R2) was interpreted. Backward algorithm was computed as well as heteroskedasticity and autocorrelation assumptions were checked. The research results are presented in the next Section. 4. Empirical Results Summary statistics for the Lithuanian bond market development is provided in Table 1. As one can notice, all potential indicators of the market growth have risen sharply comparing minimum and maximum values during 10 years. While exchange capitalization had doubled, the number of the bond issues had increased about 36 times in conjunction with total value of the bonds par which already performs in the market that had risen about 15 times from the primary value. There is any lag in the dynamics of the attracted funds variable which have changed markedly. Table 1: Summary statistics on measures of Lithuanian bond market development. (Source: created by the authors) Variables Exchange capitalization Number of bond issues Total value of issued bond par The attracted funds Mean 19,495 94,2 2004,8 1925,64 Standard deviation 6,587 66,496 2053,495 2219,211 Minimum value 12 6 466,9 196,4 Maximum value 20 215 7132 7127 Number of observations 10 10 10 10 In addition to previous measures and in completeness of statistical approach to the data, summary statistics for the ICT development is provided in Table 2. Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 Table 2: Summary statistics on measures of ICT development in Lithuania. (Source: created by the authors) Variables Mean 51,73 Standard deviation 11,074 Minimum value 35,6 16-74 year old inhabitants that in the last 3 months were using the computer 16-74 year old inhabitants that in the last 3 months were using the Internet Number of mobile phone subscribers per 100 of population Number of public fixed telephone lines per 100 of population Broadband penetration per 100 population Companies that are using information technology: internet access Companies that are using information technology: broadband internet access Maximum Number of value observations 66,5 10 47,63 14,578 24,4 66,2 10 139,19 35,302 61,8 168,2 10 24,02 0,798 22,2 24,9 10 18 11,624 1,9 35,4 10 92,065 5,180 84,37 99,7 10 47,358 36,523 0 99,3 10 The considerable changes are observed in the dynamics of broadband penetration which has increased around 18 times from its initial value. Moreover, the number of mobile phones subscribers has nearly tripled during the 10 years. Other market indicators vary between doubling and tripling during the analysis period. However, the parameter of companies that are using broadband internet access should be noted. Its start and development cycle covers the last ten years (changes in values from 0 to 99,3 per cent). The results from the model exploring the relationship between bond market developments and ICT growth indicators are reported in Table 3. Each dependent variable had three equations which parameters and t-test values are presented in the table. Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 Table 3: GMM estimation on ICT and Lithuanian bond market developments Dependent variable Exchange capitalization Intercept 16-74 year old inhabitants that in the last 3 months were using the computer 16-74 year old inhabitants that in the last 3 months were using the Internet Number of mobile phone subscribers per 100 of population Number of public fixed telephone lines per 100 of population 6,70 (3)* -1,46 (-0,37) 8,54 (1,79) 22,73 (3,51) * 35,97 (3,34) * Total value of issued bond par 13,2 (2,12) 20,77 (1,88) 52,89 (3,53) * The attracted funds 23,64 (0,86) -8,32 (2,38) * -18,48 (2,48) * 17,56 (-1,8) 28,98 (0,67) 5,28 (2,30) 14,93 (3,06) * 11,99 (1,88) 17,03 (0,61) Broadband penetration per 100 population 2,96 36,71 (0,65) 2,77 (2,85)* 1,17 (0,72) 1,68 (0,61) 3,78 (0,27) -1,54 (-0,47) 15,18 (2,79) * 14,77 (1,59) 23,67 (0,5) -0,92 (2,65)* 0,94 (1,61) -0,04 (0,04) -1,37 (0,27) Companies that are using information technology: internet access Companies that are using information technology: broadband internet access F—test of equation significance Autocorrelation test: DW 18,52 (2,36) * Number of bond issues 3,32* 0,089 80,37 (0,87) -8,99 (2,21) -18,33 (3,26) * -26,1 (3,34) * 40,43 (0,84) 0,29 (2,04) 1,28 (6,41) * 1,04 (3,75) * 1,06 (0,62) 2,44* 16,27* 0,22 24,62 39,81* 0,15 1,92 2,28 7,04* 0,38 0,29 0,42 0,21 Note: All regressions include time dummies. t values in parenthesis. * implies significant at 0,05 level. Firstly, the analysis with the capitalization of stock exchange and such ICT development indicators as use of internet and computers, subscription to mobile phones, broad band penetration and others was performed. The results emphasize positive significance of the mobile phone subscribers to the market capitalization. In particular, a percentage point increase in the number of mobile phone subscribers increases stock exchange capitalization by 2.77 percentage points. However, computer users and broadband penetration are significantly although negatively associated with the bond market development measured by market capitalization. In like manner, a percentage point increase in number of inhabitants who uses computers decreases market capitalization by 8.32 percentage points. The sign should be considered as wrong despite its statistically significant relationship with dependent variable. Negative broadband penetration association with bond market development could emphasize the conclusion of lack of technologies and related improvements in the market. Access to the internet as well as the number of fixed phone lines have an insignificant negative relationship with diffusion of bonds. While access to broadband and the use of internet are positively related to the bond market development although insignificant. According to a F-test results, two thirds of the model (two equations out of three) captures the process of bonds market diffusion. Secondly, the indicator of bond market development (capitalization) is replaced with an index of market activity (number of bond issues). The results show positive significance of the internet use of inhabitants and broadband access to companies to number of the bonds in the markets. For example, a percentage point increase in the number of Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 inhabitants using internet increases the number of bond issues by 14.93 percentage point. As well as a percentage point increase in the number of companies using broadband increases the number of bond issues by 1.28 percentage point. It supposes an importance of computerization of the investors rather than market participants. However, negative statistical significance is measured between use of computer of inhabitants and company internet access to the bond market development. Hereby, a percentage point increase in the number of companies using internet decreases the number of bond issues by 18.33 percentage point. The estimator being rather controversial, the assumption of hidden or exogenous factor is introduced in order to clarify the relationship on dependent and independent variables. The mobile phone subscribers as well as broadband penetration enter with insignificant poorly positive sign. According to the findings of a F-test implementation, two models equations could be acknowledged being robust. The analysis continued on the third model examination. For the bond market development the total value of the issued bonds par variable was chosen while independent variables describing the ICT growth remained. It resulted, that the number of companies using broadband significantly negatively associated with diffusion of bond market. In particular, a percentage increase in a number of companies using broadband increases the total value of the bonds par issued by 1.04 percentage point. However, companies’ access to internet is of negative statistical significance to bond market development. Thus, a percentage increase in a number of companies using internet decreases the total value of the bonds par issued by 26.1 percentage point. The equation is proved by F-test. The conclusion to make is that aging technologies do not act in favor of bond market development. Other variables remain the signs as in the previous model except the broadband penetration, which seems to be associated with bond market development negatively. However, all other indicators are insignificant in compliance with dependent variable as well as the models have not been fitted to the data using least squares. Unfortunately, the last indicator representing bond market development (the attracted funds) resulted in insignificant and disapproved equations. There is no direct relationship between funds attracted and measures of ICT growth in the country. To sum up, the most unstable sign directions were observed in number of fixed phone lines as well as broadband penetration, other indicators remaining of permanent direction. In generally, the use of computers by inhabitants and companies’ access to the internet were negatively associated with bond diffusion while use of internet and mobile phone, and companies’ access to broadband had positive effects on bond market development. On the other hand, small disagreement between t-test and F-test results issued an assumption of autocorrelation and its verification. Therefore in the future investigations the data sample had suggested to be enlarged or other indicators chosen. As a result, there is no supportive evidence that the hypotheses stated in the Section 3 had been neither approved nor rejected. Concluding Remarks The paper has examined the role of ICT on the growth of the Lithuanian bond market. There were several important findings: The most active and statistically proved indicators representing impact of ICT development to bond market diffusion are companies’ access to internet as well as broadband. The highly negative significant sing of access to internet is examined Proceedings of 28th International Business Research Conference 8 - 9 September 2014, Novotel Barcelona City Hotel, Barcelona, Spain, ISBN: 978-1-922069-60-3 while broadband access remains slightly positive. Both indicators saved their sign direction during whole period of the analysis. Therefore, aging technologies do not act in favor of bond market development. Negative broadband penetration association with bond market development could emphasize the conclusion of lack of technologies and related improvements in the market. While the effect of inhabitants using internet is larger than the companies’ access to broadband, it supposes an importance of computerization for investors rather than market participants (issuers). There is no direct relationship between funds attracted and measures of ICT growth in the country. The conclusions of the paper highlight that it is not enough of supportive evidence that the hypotheses about growing ICT measures insignificance on country’s bond market development could be neither approved nor rejected. For the future investigations the data sample had suggested to be enlarged or other indicators chosen. Moreover, an opposite relationship between bond market and ICT development could be examined. References Arrow K. 1962. The Rate and Direction of Inventive Activity: Economic and Social Factors. The National Bureau of Economic Research. pp. 609 – 626. Berger R.D. 1980. 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