Mobile Connectivity Infrastructure as a Structural Driver of Digital Financial Inclusion: Evidence from Central Asia
Асеинов Д.Э.1 ![]()
1 Кыргызско-Турецкий университет “Манас”, Бишкек, Кыргызстан
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Экономика Центральной Азии (РИНЦ, ВАК)
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Том 10, Номер 1 (Январь-март 2026)
Аннотация:
Цифровые финансовые услуги рассматриваются как ключевой инструмент расширения финансовой инклюзии в странах с формирующимися рынками, однако их распространение остается неравномерным. В статье анализируется, является ли инфраструктура мобильной связи структурным фактором цифровой финансовой инклюзии. На основе микроданных Global Findex 2025 и пятилетних средних значений Индекса мобильной связности исследуются шесть измерений цифровой финансовой инклюзии в Казахстане, Кыргызстане, Таджикистане и Узбекистане. Оценки фракционной логит-модели показывают положительную и статистически значимую связь цифровой готовности с общим уровнем инклюзии, цифровым доступом, транзакционной активностью, управлением счетами и операциями заимствования и сбережений. Наибольшие предельные эффекты выявлены для инфраструктурного компонента, что указывает на сохраняющиеся ограничения связности. Образование и участие в рабочей силе усиливают влияние инфраструктуры, тогда как цифровое кредитование реагирует слабее по сравнению с платежными сервисами. Результаты подтверждают экосистемный характер цифровой финансовой инклюзии и подчеркивают необходимость комплексной политики, сочетающей развитие инфраструктуры, человеческого капитала и институциональных условий.
Ключевые слова: цифровая финансовая инклюзия, инфраструктура мобильной связности, Центральная Азия, цифровая экосистема, цифровая инклюзия
JEL-классификация: G21, O16, O33, O53, G28
INTRODUCTION
Digital financial services have reshaped financial intermediation worldwide. Mobile payments, digital wallets, online banking platforms, and fintech credit products have expanded access to financial services across both advanced and developing economies. In emerging markets, digital technologies are increasingly viewed as instruments for accelerating financial inclusion, reducing transaction costs, and fostering economic participation among underserved populations.
Despite this expansion, digital financial inclusion (DFI) remains uneven across and within countries. While some economies have experienced significant digital deepening, others continue to exhibit persistent gaps in access, usage intensity, and financial sophistication. This divergence raises a central question: What structural conditions enable digital financial inclusion to develop and expand?
Existing research predominantly emphasizes individual-level determinants such as income, education, gender, employment status, and urban residence. Although these factors are important, they provide only a partial explanation. Digital financial services operate within broader technological ecosystems. Without reliable connectivity, affordable data, and adequate network coverage, digital platforms cannot achieve widespread adoption.
This paper argues that digital infrastructure and ecosystem readiness are key structural determinants of digital financial inclusion, particularly in emerging and transition economies. We examine this relationship in Central Asia using microdata from the Global Findex 2025 combined with country-level indicators from the Mobile Connectivity Index.
Central Asia provides a relevant empirical setting. The region has undergone rapid digital transformation over the past decade, yet disparities persist in broadband penetration, rural connectivity, and financial sector modernization. These differences allow us to assess whether variation in structural digital capacity is associated with differences in digital financial participation across functional dimensions.
We estimate fractional response models linking five-year averages of digital readiness to six dimensions of digital financial inclusion: overall inclusion, digital access intensity, digital outflow intensity, digital transfer intensity, digital account management intensity, and digital borrowing and saving intensity. This multidimensional approach moves beyond binary account ownership and captures the depth of digital financial engagement.
Three expectations guide the analysis. First, higher structural digital capacity should increase overall digital financial inclusion. Second, connectivity effects should be stronger for access and transaction-based functions than for more advanced activities such as digital borrowing and saving. Third, the influence of digital capacity is expected to vary with individual characteristics, particularly education and labor force participation.
The results indicate that structural digital readiness is positively associated with all dimensions of digital financial inclusion. Education strengthens digital engagement, workforce participation increases adoption, and age is negatively related to usage. Gender differences vary across financial functions.
This study contributes in four ways. First, it links macro-level digital ecosystem indicators with micro-level financial behavior. Second, it conceptualizes digital financial inclusion as multidimensional. Third, it provides systematic evidence from Central Asia, an underexplored region in the digital finance literature. Fourth, it advances a structural perspective by treating digital infrastructure as a central explanatory variable rather than a peripheral control.
The remainder of the paper proceeds as follows. Section 2 reviews the literature and develops the conceptual framework. Section 3 describes the data and empirical strategy. Section 4 presents the results. Section 5 examines robustness and heterogeneity. Section 6 concludes with policy implications.
Literature review
Financial inclusion is widely recognized as a driver of economic development, poverty reduction, and inequality reduction [8, 13, 27] (Beck et al., 2007; Demirgüç-Kunt et al., 2018; Kadir et al., 2025). Access to formal financial services enables households to smooth consumption, manage risk, and invest in productive activities [12, 30] (Burgess, Pande, 2005; Kumari, Giri, 2025). Early research focused on traditional banking expansion, emphasizing institutional quality, regulatory frameworks, and financial depth as determinants of financial participation [31, 32] (Lee, Lou, Wang, 2023; Levine, 2005).
However, in many developing and transition economies, physical banking expansion has been slow and uneven due to geographic dispersion, high service costs, and limited branch penetration [5, 24] (Allen et al., 2016; Honohan, 2008). These structural constraints have shifted attention toward digital financial services as an alternative pathway to inclusion [14] (Demirgüç-Kunt, Hu, Klapper, 2019).
Digital financial inclusion (DFI) refers to the delivery and use of financial services through digital channels such as mobile phones and internet platforms [17, 34] (Gomber et al., 2018; Ozili, 2018). Compared to traditional banking, DFI reduces transaction costs, overcomes geographic barriers, and scales rapidly [1, 26] (Aker, Mbiti, 2010; Jack, Suri, 2014).
Empirical evidence shows that mobile money adoption improves welfare, increases savings, and enhances resilience to shocks [38, 39] (Riley, 2018; Suri, Jack, 2016). Digital payments are associated with lower transaction costs and greater economic formalization [22, 28] (Hasan et al., 2012; Klapper, Singer, 2017), while digital credit remains more segmented and less widespread [10, 11] (Berg et al., 2020; Björkegren, Grissen, 2020).
Most studies focus on individual-level determinants of adoption. Income, education, gender, employment status, and urban residence consistently predict digital financial participation [13, 16] (Demirgüç-Kunt et al., 2018; Evans, Pirchio, 2015), while age reflects generational divides in digital engagement [40] (van Deursen, van Dijk, 2014). Although informative, this micro-level perspective leaves macro-level structural conditions insufficiently examined.
Research on the digital divide emphasizes infrastructure, affordability, and digital literacy as prerequisites for technology adoption [41] (Warschauer, 2004). Broadband coverage, mobile network quality, and device affordability are critical for digital participation [18, 25] (GSMA, 2025; ITU, 2025).
In emerging economies, uneven infrastructure rollout creates geographic and socioeconomic disparities in digital access [23, 35] (Hjort, Poulsen, 2019; Qiang et al., 2009). Infrastructure investment has been shown to precede digital service uptake [1] (Aker, Mbiti, 2010). Yet relatively few studies explicitly conceptualize digital infrastructure as a structural driver of financial inclusion. Internet penetration is often treated as a control variable in cross-country analyses [15] (Donou-Adonsou, Sylwester, 2016), rather than as a foundational determinant. This gap remains under-theorized in the DFI literature.
Digital financial services operate within broader digital ecosystems [6] (Autio et al., 2018). Mobile payments, digital lending, and fintech platforms depend on reliable connectivity and widespread smartphone adoption. Infrastructure may therefore act as a binding constraint on financial inclusion, particularly in low- and middle-income countries.
Evidence suggests that connectivity expansion increases mobile money and electronic payment usage [23, 39] (Hjort, Poulsen, 2019; Suri, Jack, 2016). However, research rarely disaggregates DFI into functional dimensions. Access and payments may expand rapidly, while digital credit remains constrained by regulatory and informational frictions [10] (Berg et al., 2020). Understanding these heterogeneous effects is essential for effective policy design.
Central Asia remains underexplored in the digital finance literature despite rapid digital transformation [4] (Allayarov, Saparlyyev, Durdyyev, 2024). While mobile penetration and fintech activity have expanded, disparities persist in broadband coverage, rural connectivity, and financial sector modernization [37] (Poghosyan, 2023). The region is transitioning from bank-centered systems toward digitally integrated ecosystems, illustrated by platform-based financial models such as Kaspi in Kazakhstan and MBANK in Kyrgyzstan [9] (Begimkulov, 2025).
Digitalization varies across countries. This heterogeneity provides a natural setting to examine how differences in structural digital capacity translate into variation in digital financial inclusion outcomes. Kazakhstan has established itself as the regional leader in digital infrastructure, ranking 33rd in the UN E-Government Development Index and 52nd in the ITU’s ICT Development Index [2, 33] (Ali, 2024; Mamadiyarov, 2024). It has successfully implemented "Industry 4.0" initiatives, including a "Smart City" pilot across four major cities and the "Digital Family Card" system [29] (Komendantova et al., 2022).
In contrast, Tajikistan, Kyrgyzstan, and Uzbekistan face structural barriers. Tajikistan is particularly vulnerable as a landlocked nation that must transit its internet traffic through neighbors like Uzbekistan or Russia, leading to high costs and fragile connectivity [3] (Alimova, 2025). While Uzbekistan is making significant strides with its "2030 Digital Strategy," the region as a whole still struggles with a significant urban-rural digital divide and low technological absorptive capacity [7, 43] (Azimzhanov, Myssayeva, 2025; Yuldoshboy et al., 2025).
This study contributes in four ways. First, it links macro-level digital ecosystem indicators with micro-level financial behavior, extending beyond conventional micro-determinant models. Second, it conceptualizes digital financial inclusion as multidimensional, distinguishing between access, transactions, account management, and borrowing/saving functions. Third, it identifies digital infrastructure as a primary transmission channel of financial inclusion. Fourth, it provides systematic empirical evidence from Central Asia, an underexamined region in the digital finance literature.
Methodology
Conceptual framework and empirical specification
Digital financial inclusion (DFI) is embedded within broader structural conditions and shaped by the digital ecosystem. We model DFI for individual as a function of country-level digital capacity measured by the Mobile Connectivity Index (MCI), and individual characteristics including age, gender, education, income, employment, and residence. We propose a layered mechanism in which infrastructure enables digital access, which supports transactions and account management, and eventually more advanced activities such as digital borrowing and saving. While connectivity is necessary for participation, deeper engagement depends additionally on human capital and institutional conditions.Because the dependent variables are fractional indices bounded between zero and one, we estimate fractional response logistic regression models following Papke and Wooldridge [36] (Papke, Wooldridge, 1996). This approach is appropriate for proportional outcomes and avoids the functional form limitations associated with linear probability models or transformations of bounded variables. The baseline specification is given by:
where G(⋅) denotes the
logistic link function, ensuring that predicted values lie within the unit
interval.
represents one of the digital financial inclusion indices for individual i
in country c.
is the country-level measure of structural digital capacity.
is a vector of individual-level control variables, including age, gender,
education, income quintile, employment status, and urban residence.
Accordingly, country fixed effects are not included in the baseline model, as
they would absorb the variation in the digital capacity measure.
The parameter of primary interest
is
,
which captures the marginal effect of structural digital capacity on digital
financial inclusion. Marginal effects are computed and reported to facilitate
economic interpretation. Standard errors are heteroskedasticity-robust and
clustered at the country level to account for within-country correlation in the
error structure.
By integrating digital infrastructure metrics with household-level financial outcomes, the analysis advances a structural interpretation of digital financial inclusion in emerging economies.
Measurement of digital financial inclusion
Digital financial inclusion is measured using individual-level data from the Global Findex 2025. Each underlying activity indicator is binary, but the constructed indices are fractional measures ranging from 0 to 1, reflecting the share of digital functions used by an individual. For each dimension, we compute intensity indices as the mean of several digital financial activities. these indices take discrete fractional values depending on the number of components.Digital access intensity captures ownership of a digitally enabled account and a mobile money account. Digital outflow intensity measures digital payment behavior, including merchant payments, online purchases, utility payments, and bill payments. Digital transfer intensity reflects digital inflows such as remittances, wages, and government transfers received digitally. Digital account management intensity captures digital monitoring activities such as checking balances and accessing accounts via mobile or internet. Digital borrowing and saving intensity measures participation in digital credit and savings products.
The overall digital financial inclusion index is computed as the mean of the five functional intensity measures described above. This composite indicator ranges from 0 to 1 and reflects the breadth and depth of digital financial engagement across access, transactions, transfers, account management, and borrowing or saving activities.
Measuring structural digital capacity
Structural digital capacity is measured using the five-year average (2020–2024) of the Mobile Connectivity Index (MCI) developed by the GSMA [20, 21] (GSMA, 2025; GSMA, 2025). The MCI provides a comprehensive assessment of a country’s readiness to support digital services and mobile ecosystem development.
The index is built around four pillars: infrastructure (network coverage, capacity, and quality), affordability (cost of devices and data relative to income), consumer readiness (digital skills and usage capacity), and content and services (availability and adoption of digital platforms). These components are aggregated into a standardized country-level index ranging from 0 to 100.
To isolate the primary transmission channel, we also use the infrastructure subcomponent separately. Five-year averaging reduces short-term volatility and ensures that the measure reflects persistent structural conditions rather than temporary fluctuations.
Control variables
To account for observable heterogeneity in digital financial participation, we include a comprehensive set of individual-level control variables capturing demographic characteristics, socioeconomic status, and geographic characteristics that are commonly associated with financial inclusion.Specifically, the model controls for age as a continuous variable and gender through a binary indicator for female respondents. Educational attainment is included using categorical indicators distinguishing primary education or less, secondary education, and tertiary education. Employment status captures whether the respondent is active in the workforce. We further control for within-economy household income quintile to account for relative income position and include an indicator for urban residence to capture potential geographic differences in access to services.
Because structural digital capacity is measured at the country level and does not vary within countries, the empirical specification relies on cross-country variation across the four economies in the sample. Accordingly, country fixed effects are not included in the baseline model, as they would absorb the variation in the digital capacity measure. The estimates therefore capture associations between country-level digital ecosystem conditions and individual-level financial outcomes, conditional on observed individual characteristics.
Data and sample
This study combines individual-level financial behavior data from the Global Findex 2025 [42] (World Bank, 2025) with country-level indicators of digital ecosystem development from the Mobile Connectivity Index (MCI) 2025 [20] (GSMA, 2025).
The Global Findex provides harmonized microdata on financial access and usage across countries using standardized survey instruments. The dataset includes detailed information on digital financial behavior, demographic characteristics, labor market participation, household income quintiles, and geographic residence. Its consistent methodology enables cross-country comparability of financial inclusion measures.
To capture structural digital capacity, we employ the Mobile Connectivity Index (MCI) developed by the GSMA. The MCI provides a comprehensive assessment of a country’s digital ecosystem readiness by aggregating four interrelated dimensions of mobile internet development. These include infrastructure, which reflects network coverage, capacity, and service quality; affordability, capturing the cost of mobile devices and data services relative to income; consumer readiness, encompassing digital literacy and the ability to effectively utilize mobile technologies; and content and services, measuring the availability and adoption of relevant digital platforms and applications.
To ensure that the measure reflects persistent structural conditions rather than temporary fluctuations, we construct five-year averages (2020–2024) of both the composite MCI index and its infrastructure component. This approach reduces short-term volatility and strengthens the interpretation of digital capacity as a medium-term structural determinant of digital financial inclusion.
The empirical analysis focuses on four Central Asian economies: Kazakhstan, Kyrgyzstan, Tajikistan, and Uzbekistan. These countries exhibit meaningful variation in digital ecosystem development and financial sector modernization, making them suitable for examining structural heterogeneity in digital financial inclusion.
After merging the Global Findex microdata with country-level digital capacity indicators, the final analytical sample consists of 3,992 individuals. Observations with missing information on key dependent or explanatory variables are excluded. Survey weights provided by Global Findex are applied to maintain national representativeness.
Empirical results
Digital readiness and financial inclusion
Table 1 reports average marginal effects from fractional logit estimations examining the relationship between structural digital readiness, measured as the five-year average Mobile Connectivity Index (2020–2024), and multiple dimensions of digital financial inclusion in Central AsiaTable 1
Fractional logit marginal effects of structural digital capacity on multidimensional digital financial inclusion
|
|
Overall digital financial inclusion
|
Digital access intensity
|
Digital outflow intensity
|
Digital transfers intensity
|
Digital account management intensity
|
Digital borrowing/saving intensity
|
|
Mean MCI Index (2020–2024)
|
0.0080***
(0.000)
|
0.0145***
(0.000)
|
0.0091***
(0.000)
|
0.0054***
(0.000)
|
0.0072***
(0.000)
|
0.0052***
(0.000)
|
|
Respondent age
|
-0.0006
(0.000)
|
-0.0013***
(0.000)
|
-0.0015*
(0.001)
|
-0.0007***
(0.000)
|
-0.0006
(0.001)
|
-0.0007***
(0.000)
|
|
Respondent is female
|
0.0113
(0.015)
|
0.0014
(0.028)
|
0.0153
(0.017)
|
-0.0106
(0.011)
|
0.0357**
(0.015)
|
-0.0040***
(0.001)
|
|
Respondent is in the workforce
|
0.1102***
(0.026)
|
0.1726***
(0.031)
|
0.1461***
(0.017)
|
0.0672***
(0.010)
|
0.1556***
(0.014)
|
0.0735***
(0.007)
|
|
Respondent lives in urban area
|
0.0013
(0.015)
|
0.0074
(0.023)
|
0.0323
(0.023)
|
-0.0144***
(0.005)
|
0.0088
(0.028)
|
-0.0024
(0.006)
|
|
Education (r.c.: Primary education or
less)
| ||||||
|
Secondary
education
|
0.0591***
(0.022)
|
0.1063***
(0.018)
|
0.0992***
(0.027)
|
0.0378***
(0.003)
|
0.1146***
(0.026)
|
0.0360***
(0.008)
|
|
Tertiary
education or more
|
0.1716***
(0.020)
|
0.2441***
(0.017)
|
0.2646***
(0.024)
|
0.0841***
(0.019)
|
0.2759***
(0.042)
|
0.0649***
(0.007)
|
|
Within-economy
household income quintile (r.c.: 1st quintile – poorest income group)
| ||||||
|
2nd quintile
|
0.0219*
(0.013)
|
0.0159
(0.024)
|
0.0254***
(0.009)
|
0.0081
(0.005)
|
0.0352*
(0.019)
|
-0.0180
(0.013)
|
|
3rd quintile
|
0.0159
(0.015)
|
0.0154
(0.028)
|
0.0194**
(0.009)
|
-0.0028
(0.007)
|
0.0356
(0.026)
|
-0.0282
(0.021)
|
|
4th quintile
|
0.0324
(0.021)
|
0.0602
(0.044)
|
0.0582**
(0.023)
|
0.0218
(0.017)
|
0.0419*
(0.025)
|
-0.0158
(0.022)
|
|
5th quintile
|
0.0506*
(0.030)
|
0.0776
(0.065)
|
0.0922**
(0.044)
|
0.0131
(0.016)
|
0.0938**
(0.044)
|
-0.0245
(0.043)
|
|
Observations
|
3992
|
3992
|
3992
|
3992
|
3992
|
3992
|
Source: author’s calculations using Global Findex 2025 and Mobile Connectivity Index (MCI) 2025 data.
Across all specifications, digital readiness is positive and statistically significant at the 1 percent level. A one-unit increase in digital readiness increases overall digital financial inclusion by 0.8 percentage points. The largest effect is observed for digital access intensity (1.45 percentage points), followed by digital outflows (0.91 percentage points) and digital account management (0.72 percentage points). The smallest, though still statistically significant, effects are found for digital transfers (0.54 percentage points) and digital borrowing and saving (0.52 percentage points).
The magnitude pattern is economically meaningful. The strongest impact on digital access indicates that improvements in connectivity primarily expand entry into the digital financial ecosystem. Transaction-based activities respond next, while credit-related functions exhibit comparatively smaller responsiveness. This gradient supports a staged digital financial development process in which infrastructure facilitates access, access enables payments, and more complex financial services expand subsequently. These findings suggest that structural digital readiness operates as a foundational determinant shaping both the breadth and depth of digital financial ecosystems.
Infrastructure as the core transmission channel
To further investigate the primary mechanism driving these results, Table 2 isolates the infrastructure subcomponent of the Mobile Connectivity Index. The estimated marginal effects are substantially larger in magnitude than those obtained using the composite index, suggesting that physical network capacity is the foundational driver of digital financial engagement in the region.Table 2
Fractional logit marginal effects of infrastructure capacity on multidimensional digital financial inclusion
|
|
Overall digital financial inclusion
|
Digital access intensity
|
Digital outflow intensity
|
Digital transfers intensity
|
Digital account management intensity
|
Digital borrowing/saving intensity
|
|
Mean Infrastructure (2020–2024)
|
0.7417***
(0.026)
|
1.3400***
(0.036)
|
0.8400***
(0.020)
|
0.5006***
(0.017)
|
0.6669***
(0.031)
|
0.4831***
(0.011)
|
|
Respondent age
|
-0.0006
(0.000)
|
-0.0013***
(0.000)
|
-0.0015*
(0.001)
|
-0.0007***
(0.000)
|
-0.0006
(0.001)
|
-0.0007***
(0.000)
|
|
Respondent is female
|
0.0113
(0.015)
|
0.0014
(0.028)
|
0.0153
(0.017)
|
-0.0106
(0.011)
|
0.0357**
(0.015)
|
-0.0040***
(0.001)
|
|
Respondent is in the workforce
|
0.1102***
(0.026)
|
0.1726***
(0.031)
|
0.1461***
(0.017)
|
0.0672***
(0.010)
|
0.1556***
(0.014)
|
0.0735***
(0.007)
|
|
Respondent lives in urban area
|
0.0013
(0.015)
|
0.0074
(0.023)
|
0.0323
(0.023)
|
-0.0144***
(0.005)
|
0.0088
(0.028)
|
-0.0024
(0.006)
|
|
Education (r.c.: Primary education or
less)
| ||||||
|
Secondary education
|
0.0591***
(0.022)
|
0.1063***
(0.018)
|
0.0992***
(0.027)
|
0.0378***
(0.003)
|
0.1146***
(0.026)
|
0.0360***
(0.008)
|
|
Tertiary education or more
|
0.1716***
(0.020)
|
0.2441***
(0.017)
|
0.2646***
(0.024)
|
0.0841***
(0.019)
|
0.2759***
(0.042)
|
0.0649***
(0.007)
|
|
Within-economy
household income quintile (r.c.: 1st quintile – poorest income group)
| ||||||
|
2nd quintile
|
0.0219*
(0.013)
|
0.0159
(0.024)
|
0.0254***
(0.009)
|
0.0081
(0.005)
|
0.0352*
(0.019)
|
-0.0180
(0.013)
|
|
3rd quintile
|
0.0159
(0.015)
|
0.0154
(0.028)
|
0.0194**
(0.009)
|
-0.0028
(0.007)
|
0.0356
(0.026)
|
-0.0282
(0.021)
|
|
4th quintile
|
0.0324
(0.021)
|
0.0602
(0.044)
|
0.0582**
(0.023)
|
0.0218
(0.017)
|
0.0419*
(0.025)
|
-0.0158
(0.022)
|
|
5th quintile
|
0.0506*
(0.030)
|
0.0776
(0.065)
|
0.0922**
(0.044)
|
0.0131
(0.016)
|
0.0938**
(0.044)
|
-0.0245
(0.043)
|
|
Observations
|
3992
|
3992
|
3992
|
3992
|
3992
|
3992
|
Source: author’s calculations using Global Findex 2025 and Mobile Connectivity Index (MCI) 2025 data.
The results indicate that infrastructure capacity is the primary structural determinant of digital financial development in Central Asia. Specifically, a one-unit increase in the infrastructure index is associated with a 0.742 percentage point increase in overall digital financial inclusion. The impact is most pronounced for digital access intensity (1.34), confirming that connectivity serves as the entry gate to the digital ecosystem.
While infrastructure consistently drives transactional functions such as digital outflows (0.84) and account management (0.67), its effect on digital borrowing and saving (0.48) is relatively smaller. These results indicate that infrastructure represents the dominant structural constraint in the region. In Central Asia, where rural connectivity gaps and uneven broadband penetration persist, digital infrastructure appears to function as a binding constraint on financial inclusion. Once connectivity improves, adoption responds strongly across nearly all functional dimensions.
However, the comparatively smaller impact on digital borrowing and saving suggests that while infrastructure enables transactional usage, financial deepening in credit markets depends additionally on institutional quality, regulatory development, and financial sector sophistication.
Demographic and socioeconomic determinants
Age exhibits a consistently negative and statistically significant association with most dimensions of digital financial inclusion. Each additional year reduces the likelihood of digital access and digital transfers by approximately 0.13 percentage points. This confirms the presence of a generational digital divide, with younger cohorts driving digital finance adoption.Gender effects vary across financial functions. Women are significantly more likely to engage in digital account management, yet less likely to participate in digital borrowing and saving. No statistically significant difference emerges for overall inclusion. This pattern suggests that gender disparities are concentrated in credit markets rather than in digital access or payment systems.
Education demonstrates the strongest individual-level gradient in the model. Relative to primary education or less, secondary education increases overall digital financial inclusion by 5.9 percentage points, while tertiary education increases it by 17.2 percentage points. Effects are particularly pronounced for digital access and digital account management.
These results indicate that human capital substantially amplifies the returns to digital infrastructure. Connectivity alone does not ensure effective financial inclusion; educational attainment determines the ability to utilize digital financial tools productively.
Being employed increases overall digital financial inclusion by 11 percentage points and digital access by 17 percentage points. Labor market engagement appears to be a critical demand-side driver, reflecting income flows, payment needs, and formal sector integration.
Higher income quintiles are generally associated with higher probabilities of digital inclusion, particularly for digital outflows and account management. However, the income gradient is weaker for borrowing and saving functions, suggesting segmentation or underdevelopment of digital credit markets in the region.
Discussion and conclusion
This study links macro-level digital ecosystem capacity to micro-level financial behavior in Central Asia using Global Findex 2025 data and five-year averages of the Mobile Connectivity Index. The results show that digital financial inclusion follows a layered pattern. Infrastructure is the primary structural driver, strongly increasing digital access and transactional use, while credit-related activities respond more weakly.
These findings indicate that connectivity is a necessary but insufficient condition for deeper financial engagement. While infrastructure enables entry into the digital financial system, sustained expansion of digital borrowing and saving depends additionally on human capital and institutional quality. Education and labor force participation amplify infrastructure gains, while gender disparities in digital credit suggest institutional rather than technological constraints.
The policy implications are clear. Expanding broadband coverage and improving affordability, particularly in rural areas, should remain a priority. However, infrastructure investment must be complemented by digital and financial literacy programs, strengthened credit information systems, and inclusive regulatory frameworks. Without these complementary reforms, digital financial deepening will remain uneven across functions and population groups.
Overall, digital financial inclusion should be understood as a structural ecosystem outcome. Infrastructure forms the foundation, but equitable and sustainable deepening requires coordinated progress in connectivity, skills, and institutional development. Future research should strengthen causal identification and further examine regulatory and market factors shaping digital credit expansion.
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Mobile Connectivity Infrastructure as a Structural Driver of Digital Financial Inclusion: Evidence from Central Asia
Aseinov D.E.Journal paper
Journal of Central Asia Economy
Volume 10, Number 1 (January-March 2026)
Abstract:
Digital financial services are widely promoted as a mechanism for expanding financial inclusion in emerging economies, yet adoption remains uneven across countries and population groups. This paper examines whether structural digital ecosystem capacity, Mobile Connectivity Infrastructure, constitutes a foundational driver of digital financial inclusion. Using microdata from the Global Findex 2025 combined with five-year averages of the Mobile Connectivity Index, we analyze six dimensions of digital financial inclusion across Kazakhstan, Kyrgyzstan, Tajikistan, and Uzbekistan. Fractional logit estimates reveal that digital readiness is positively and significantly associated with overall inclusion as well as digital access, transaction intensity, account management, and borrowing/saving activities. The infrastructure component of digital readiness exhibits the strongest marginal effects, suggesting that connectivity remains a binding constraint in the region. Education and workforce participation amplify infrastructure gains, while digital borrowing functions respond less strongly than payment-based services. The findings support a layered ecosystem interpretation of digital finance development, in which infrastructure enables access but deeper financial engagement depends on complementary human capital and institutional factors. The results have important implications for digital inclusion policy in emerging markets.
Keywords: digital Financial Inclusion, Mobile Connectivity Infrastructure, Central Asia, Digital Ecosystem, Digital Inclusion
JEL-classification: G21, O16, O33, O53, G28
References:
On the rise of fintechs: Credit scoring using digital footprints (2020). Review of Financial Studies. 33 (7). 2845-2897. doi: 10.1093/rfs/hhz099.
The Global Findex database 2025: Connectivity and financial inclusion in the digital economy (2025). Washington, DC: World Bank.
Aker J.C., Mbiti I.M. (2010). Mobile phones and economic development in Africa Journal of Economic Perspectives. 24 (3). 207-232. doi: 10.1257/jep.24.3.207.
Ali J. Central Asiaʼs transition to a digital economyCaspian Alpine Society. Retrieved from https://caspian-alpine.org/central-asias-transition-to-a-digital-economy/
Allayarov V., Saparlyyev D., Durdyyev D. (2024). Analyzing the effectiveness of financial inclusion programs in Central Asia Science Bulletin. 1 (7(76)). 27-32.
Allen F., Demirgüç-Kunt A., Klapper L., Martinez Peria M.S. (2016). The foundations of financial inclusion: Understanding ownership and use of formal accounts Journal of Financial Intermediation. 27 1-30. doi: 10.1016/j.jfi.2015.12.003.
Autio E., Nambisan S., Thomas L.D.W., Wright M. (2018). Digital affordances, spatial affordances, and the genesis of entrepreneurial ecosystems Strategic Entrepreneurship Journal. 12 (1). 72-95. doi: 10.1002/sej.1266.
Azimzhanov D.S., Myssayeva K.N. (2025). Digital transformation: a comparative analysis of information and communication technologies and media in Kazakhstan and Uzbekistan Herald of journalism. 75 (1). 106-123. doi: 10.26577/HJ2025751010.
Beck T., Demirgüç-kunt A., Levine R. (2007). Finance, inequality and the poor Journal of Economic Growth. 12 (1). 27-49. doi: 10.1007/s10887-007-9010-6.
Begimkulov E. (2025). Bank digitalization and financial stability in Central Asia: Assessing risk and resilience Journal of Eastern European and Central Asian Research. 12 (1). 17-30.
Björkegren D., Grissen D. (2020). Behavior revealed in mobile phone usage predicts credit repayment World Bank Economic Review. 34 (3). 618-634. doi: 10.1093/wber/lhy007.
Burgess R., Pande R. (2005). Do rural banks matter? Evidence from the Indian social banking experiment The American Economic Review. 95 (3). 780-795. doi: 10.1257/0002828054201242.
Demirgüç-Kunt A., Hu B., Klapper L. Financial inclusion in the Europe and Central Asia region: Recent trends and a research agenda. World Bank Policy Research Working Paper. 8830. - 2019
Demirgüç-Kunt A., Klapper L., Singer D., Ansar S., Hess J. (2018). The Global Findex database 2017: Measuring financial inclusion and the fintech revolution Washington, DC: World Bank.
Donou-Adonsou F., Sylwester K. (2016). Financial development and poverty reduction in developing countries: New evidence from banks and microfinance institutions Review of Development Finance. 6 (1). 82-90. doi: 10.1016/j.rdf.2016.06.002.
Evans D.S., Pirchio A. (2015). An empirical examination of why mobile money schemes ignite in some developing countries but flounder in most Review of Network Economics. 13 (4). 397-451. doi: 10.1515/rne-2015-0020.
Gomber P., Koch J.A., Siering M. (2017). Digital Finance and FinTech: current research and future research directions Journal of Business Economics. 87 (5). 537-580. doi: 10.1007/s11573-017-0852-x.
Hasan I., De Renzis T., Schmiedel H. Retail payments and economic growthBank of Finland Research Discussion Papers, No. 19/2012. Retrieved from https://nbn-resolving.de/urn:nbn:fi:bof-20140807565
Hjort J., Poulsen J. (2019). The arrival of fast internet and employment in Africa American Economic Review. 109 (3). 1032-1079. doi: 10.1257/aer.20161385.
Honohan P. (2008). Cross-country variation in household access to financial services Journal of Banking and Finance. 32 (11). 2493-2500. doi: 10.1016/j.jbankfin.2008.05.004.
Jack W., Suri T. (2014). Risk sharing and transactions costs: Evidence from Kenya's mobile money revolution The American Economic Review. 104 (1). 183-223. doi: 10.1257/aer.104.1.183.
Kadir R.D., Tri Wahyudi S., Maski G., Devia Sagita Sumantri V. (2025). The role of financial inclusion in reducing household poverty: insights from Eastern Indonesia Cogent Economics and Finance. 13 (1). 2588925. doi: 10.1080/23322039.2025.2588925.
Klapper L., Singer D. (2017). The opportunities and challenges of digitizing government-to-person payments World Bank Research Observer. 32 (2). 211-226. doi: 10.1093/wbro/lkx003.
Komendantova N., Rovenskaya E., Strelkovskii N., Rodriguez F.S. (2022). Impacts of various connectivity processes in Central Asia on sustainable development of Kyrgyzstan Sustainability. 14 (2). 6998. doi: 10.3390/su14126998.
Kumari D., Giri A.K. (2025). Can digital financial inclusion (DFI) effectively alleviate poverty? Evidence from Asian countries International Journal of Emerging Markets. doi: 10.1108/IJOEM-09-2024-1525.
Lee Ch.Ch., Lou R., Wang F. (2023). Digital financial inclusion and poverty alleviation: Evidence from the sustainable development of China Economic Analysis and Policy. 77 418-434. doi: 10.1016/j.eap.2022.12.004.
Levine R. (2005). Finance and growth: Theory and evidence Amsterdam: Elsevier.
Mamadiyarov Z. (2024). Comparative analysis of digital banking adoption in Central Asia: Opportunities and barriers International Multidisciplinary Journal of Education. 2 (8). 452-458.
Measuring digital development: Facts and figures 2025International Telecommunication Union. Retrieved from https://www.itu.int/en/ITU-D/Statistics/pages/facts/default.aspx
Mobile connectivity index methodologyGSMA. Retrieved from https://www.gsma.com/solutions-and-impact/connectivity-for-good/mobile-for-development/wp-content/uploads/2025/06/GSMA-MCI-Methodology-Report.pdf
Muborak Alimova (2025). Digital Transformation of the National Economy: Problems and Solutions Integrated Economies and Policy Insights. 1 (2). 32-39. doi: 10.64229/10xkww88.
Ozili P.K. (2018). Impact of digital finance on financial inclusion and stability Borsa Istanbul Review. 18 (4). 329-340. doi: 10.1016/j.bir.2017.12.003.
Papke L.E., Wooldridge J.M. (1996). Econometric methods for fractional response variables with an application to 401 (k) plan participation rates Journal of applied econometrics. 11 (6). 619-632. doi: 10.1002/(SICI)1099-1255(199611)11:63.0.CO;2-1.
Poghosyan T. (2023). The anatomy of the financial inclusion gap in the Caucasus and Central Asia IMF Working Papers. 2023 (109). 1. doi: 10.5089/9798400243431.001.
Qiang C.Z.W., Rossotto C.M., Kimura K. (2009). Economic impacts of broadband Washington, DC: World Bank.
Riley E. (2018). Mobile money and risk sharing against village shocks Journal of Development Economics. 135 43-58. doi: 10.1016/j.jdeveco.2018.06.015.
Suri T., Jack W. (2016). The long-run poverty and gender impacts of mobile money Science. 354 (6317). 1288-1292. doi: 10.1126/science.aah5309.
The mobile economy 2025. GSMA IntelligenceGSMA. Retrieved from https://www.gsma.com/solutions-and-impact/connectivity-for-good/mobile-economy/wp-content/uploads/2026/01/The-Mobile-Economy-2025.pdf
The state of mobile internet connectivity 2025: Network coverage and infrastructureGSMA. Retrieved from https://www.gsma.com/somic/wp-content/uploads/2025/09/The-State-of-Mobile-Internet-Connectivity-2025-Network-Coverage-and-Infrastructure.pdf
The state of mobile internet connectivity 2025: Overview reportGSMA. Retrieved from https://www.gsma.com/somic/wp-content/uploads/2025/09/The-State-of-Mobile-Internet-Connectivity-2025-Overview-Report.pdf
Warschauer M. (2004). Technology and social inclusion: Rethinking the digital divide Cambridge, MA: The MIT Press.
Yuldoshboy S., Beruniy A., Javokhir S., Khodjaniyazov E., Karimov M., Saidmamatov O., Marty P. (2025). Exploring ICT as an Engine for Sustainable Economic Growth in Central Asia Economies. 13 (12). 365. doi: 10.3390/economies13120365.
van Deursen A., van Dijk J. (2014). The digital divide shifts to differences in usage New Media and Society. 16 (3). 507-526. doi: 10.1177/1461444813487959.
