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Digital Financial Inclusion and Multidimensional Poverty Alleviation: Empowering Young Migrant Workers in China

  • Tao Luo ORCID logo , Zilin Cheng and Hongmei Ma EMAIL logo
Published/Copyright: February 2, 2026

Abstract

Digital financial inclusion (DFI) plays a vital role in alleviating multidimensional poverty (MP), particularly among vulnerable groups. Grounded in Sen’s Capability Approach and using microdata from the 2019 China Household Finance Survey (CHFS), this study develops a multidimensional poverty index (MPI) for young migrant workers in China and examines the impact of DFI on poverty reduction. Employing Probit, Tobit, instrumental variables (IV), and moderation models, the results show that DFI significantly mitigates MP, with stronger effects observed in western China. Digitalization exerts the greatest influence among the DFI components, followed by the breadth of coverage and the depth of usage. The study finds no evidence of household-level “elite capture,” and the relationship between DFI and MP displays an inverted U-shaped pattern. Overall, the findings underscore the capacity of DFI to expand substantive freedoms, reduce poverty, and promote social equity, highlighting the importance of developing inclusive digital infrastructure and enhancing financial literacy programs to support equitable digital transformation and sustainable poverty reduction.

JEL Classification: D63; I38; O15; O16

1 Introduction

The 2030 Agenda for Sustainable Development places poverty eradication at the core of the global development agenda, identifying the elimination of all forms of poverty by 2030 as a key objective (Leal Filho et al. 2021). This goal underscores the need to move beyond traditional income-based measures of poverty and adopt a more comprehensive multidimensional poverty (MP) framework that integrates critical dimensions such as education, healthcare, employment, and social protection.

Although China officially eradicated extreme income poverty by 2020, MP persists among certain population groups, largely reflecting structural inequities, institutional segmentation, and unequal access to essential public services. These challenges are especially evident in rapidly urbanizing regions and among labor sectors with limited access to essential public services (Wu et al 2024; Zhou et al. 2023). This situation is not unique to China; comparable patterns have been observed in other developing nations, such as Ethiopia, India, and Peru, where limited educational opportunities, inadequate healthcare, and poor living conditions constitute major dimensions of MP (Borga and D’Ambrosio 2021). A cross-national analysis of 71 low- and middle-income countries further demonstrates that governance quality is strongly correlated with MP levels, although structural barriers often constrain the effectiveness of governance reforms in low-income contexts (Jindra and Vaz 2019). Migrant workers in China remain particularly disadvantaged under the dual urban-rural institutional framework. Despite their critical contributions to industrialization and urban development (Tian et al. 2021; Yang and Qu 2020), they continue to face multiple vulnerabilities, including informal employment, inadequate healthcare access, substandard housing, and limited educational opportunities (Cao et al. 2017; Zheng et al. 2021; Zhou et al. 2023).

Young migrant workers account for more than half of China’s 290 million migrant laborers and represent a vital driving force in the country’s modernization (Ministry of Human Resources and Social Security of the People’s Republic of China 2019). Although their education levels and digital literacy generally exceed those of the previous generation, studies show that they continue to face multidimensional deprivation, characterized by unstable employment, limited social security coverage, and restricted access to digital services (Cheng 2014; Chiang et al. 2021; Tang et al 2020). These structural challenges have received insufficient attention in both research and policy discussions. Consequently, the intersection of institutional barriers and limited digital participation makes young migrant workers a pivotal group for examining the empowerment potential and distributional implications of financial innovation.

Globally, the development of mobile finance provides valuable insights into both the potential and limitations of digital financial inclusion (DFI), particularly in reaching marginalized populations. In East Africa, platforms such as M-Pesa have significantly improved access to financial services and enhanced household resilience (Munyegera and Matsumoto 2016; Suri and Jack 2016). Nevertheless, emerging research raises critical concerns about the inclusiveness and long-term sustainability of these systems for low-income groups. Mader (2017) argues that digital finance has not effectively reduced the borrowing costs of the poor and may, in fact, heighten systemic risks. Similarly, Ozili (2018) observed that digital financial platforms often impose high internet connectivity costs and tend to cater to wealthier users, thereby marginalizing poorer populations and leaving them underinsured. Meagher (2015) further warns that integrating low-income individuals into digital financial ecosystems could deepen existing inequalities and create new forms of exclusion. Collectively, these findings highlight that DFI, while promising, is insufficient on its own to guarantee equitable financial access. Gabor and Brooks (2016) underscore the importance of state intervention, through public subsidies and robust regulatory frameworks to ensure that digital finance delivers genuinely inclusive benefits. Similarly, Ozili (2020) recommends incorporating risk-mitigation mechanisms into digital finance infrastructures before extending services to vulnerable populations. Collectively, these critiques indicate that the effectiveness of DFI should be measured by its ability to enhance substantive freedoms among marginalized groups rather than merely by access-related indicators. In response to this perspective, this study applies the Capability Approach to examine the impact of DFI on MP among young Chinese migrant workers, a group defined by persistent institutional and infrastructural disadvantages.

This study adopts Sen’s Capability Approach, conceptualizing MP as the systematic deprivation of essential capabilities and emphasizing individuals’ substantive freedoms to lead meaningful lives. DFI is viewed as a potential empowerment mechanism that facilitates access to education, healthcare, income security, and information within this framework. Using the dual cutoff method developed by Alkire and Foster (2011), the study constructs a tailored multidimensional poverty index (MPI) derived from nationally representative microdata obtained from the 2019 China Household Finance Survey (CHFS). A series of econometric models is employed to empirically examine the causal relationship between DFI and MP, as well as to explore regional heterogeneity and nonlinear effects.

Within this framework, digital capability empowerment is defined as the process by which DFI expands individuals’ substantive freedoms and capabilities, consistent with the principles of the Capability Approach. Specifically, it refers to the ability of marginalized groups, such as young migrant workers, to leverage digital financial services to improve their access to education, healthcare, social protection, and income-generating opportunities. In contrast to traditional financial inclusion, which focuses primarily on access to financial accounts or credit, digital capability empowerment emphasizes the broader enhancement of human capabilities, enabling individuals to pursue lives they have reason to value. This conceptualization forms the theoretical foundation of the analysis and underscores the originality of the study.

This study makes four key contributions. First, it provides a systematic analysis of the relationship between MP and DFI among young migrant workers in China, thereby filling a critical empirical gap in this population. Second, it strengthens the theoretical foundation of financial inclusion within development economics by integrating the Capability Approach with the concept of digital capability empowerment. Third, it deepens the understanding of the complex relationship between DFI and by demonstrating that the impact of DFI on MP follows a nonlinear trajectory, showing initial negative effects that transition to positive impacts as digital financial development advances. These insights contribute to the growing body of literature on the nonlinear dynamics of digital finance in poverty reduction. Finally, an MP measurement system tailored to the Chinese context was developed, offering practical insights for domestic policymaking and broader implications for digital era global poverty reduction strategies.

The remainder of this study is structured as follows: Section 2 reviews the relevant literature and formulates the research hypotheses; Section 3 describes the methodology and data sources; Section 4 presents and interprets the empirical results; Section 5 examines the mechanisms through which DFI affects MP; Section 6 discusses the findings and outlines key policy implications; and Section 7 concludes with a summary of the results and recommendations for future research.

2 Literature Review and Hypotheses

2.1 Definition and Poverty Measurement

The concept of poverty has been transformed from a narrow economic perspective of resource scarcity into a comprehensive, multidimensional understanding of social deprivation. Adam Smith pioneered the argument in The Wealth of Nations that poverty extends beyond the absence of basic necessities to encompass the inability to afford “necessaries which the customs of the country render it indecent for creditable people, even of the lowest order, to be without.” The social shame experienced by a respectable worker without a linen shirt was used to demonstrate the social dimension of a “decent life.” Building on this foundation, the concept of “relative deprivation” was introduced by Townsend (1979), who posited that poverty arises when individuals are unable to participate in customary social life because of limited resources. Poverty was redefined from absolute scarcity to a form of social exclusion. Sen (1999) further developed this understanding through the Capability Approach, in which poverty was conceptualized as the deprivation of substantive freedoms to engage in basic functional activities. Within this framework, emphasis was placed on moving beyond income or consumption metrics to assess whether genuine capabilities exist for individuals to pursue their valued life choices, with attention directed toward agency, resource-capability conversion mechanisms, and the structural foundations of freedoms, choices, and institutions.

As these theoretical foundations evolved, scholars and international organizations developed various frameworks for measuring MP. Traditional poverty metrics, such as income- or consumption-based poverty lines (Chen and Ravallion 2007), have been widely applied because of their simplicity and practicality. However, poverty has increasingly been recognized as a complex, cross-sectoral phenomenon that cannot be fully captured by monetary indicators alone. Exclusive reliance on income or consumption measures is viewed as inadequate because critical dimensions of deprivation, such as health, education, housing, and social participation, may be overlooked (Alkire and Santos 2014; Sen 1985). In response, MPI was developed to encompass various domains, including income, education, health, and quality of life (Alkire and Foster 2011; Cheng 2023; Neckerman et al. 2016; Wang et al. 2024). Although these frameworks have advanced the understanding of poverty, ensuring that the lived experiences of marginalized groups across different regions are accurately reflected remains a persistent challenge. Within this context, the United Nations Development Programme’s Global MPI has been designed to measure health, education, and living standards in alignment with the sustainable development goals, now covering more than 570 million people worldwide (Alkire and Kanagaratnam 2020). In China, measurable deprivation indicators were created through the transformation of the targeted poverty alleviation policy “two assurances and three guarantees” thereby enabling more precise identification of MP (Cheng et al 2021). Nonetheless, poverty continues to be challenged by the applicability of these indicators across diverse socioeconomic contexts, together with regional variations in data availability (Kana Zeumo et al. 2014).

2.2 MP Issues of Migrant Workers

Rural-to-urban migrant workers in China face complex and interconnected MP challenges as a result of institutional barriers and structural inequalities. The household registration system hukou, a distinctive policy in China, categorize individuals as rural or urban residents according to birthplace. Substantial restrictions are imposed on rural-to-urban migrant workers through this system, preventing them from obtaining equal rights and services available to urban residents. In particular, access to employment opportunities, income, social security, and public services such as healthcare and education is constrained despite their physical presence in urban areas. A sharp division between urban and rural populations is established through the hukou system, thereby generating significant disparities in living conditions and opportunities for migrant workers (Chiang et al. 2021).

This institutional constraint is compounded by the urban-rural economic dualism, which intensified socioeconomic vulnerability (Huang and Zhang 2019). Young vibrant workers are particularly susceptibility to social marginalization, discriminatory treatment, and obstacles to urban integration, thereby impeding their full economic and social participation (Tang et al. 2020). Although opportunities for mobility have been expanded by urban reindustrialization and service sector growth, the predominance of low-skilled employment has resulted in intense competition and the dual challenges of inadequate wages and job insecurity. Consequently, higher living expenses and heightened employment uncertainty are generated, further amplifying the vulnerability of this demographic (Huang and Zhang 2019). Income deprivation has been shown to arise from the combined effect of low wages and employment instability, while social protection deprivation has been manifested in limited health insurance participation (approximately one-third) and minimal urban homeownership (merely 5.7 %) (Chiang et al. 2021). Furthermore, the susceptibility of the new generation of migrant workers to in-work poverty has been heightened by restricted skill development and institutional embeddedness in informal employment (Tang et al 2020). Through these structural limitations, young vibrant workers experience multidimensional deprivation, and their vulnerability is reinforced across multiple aspects of life, including access to stable housing, healthcare, and social services.

2.3 Effect of DFI on the Comprehensive Poverty of Migrant Workers

DFI is a vital mechanism for promoting inclusive growth through the expansion of financial resource access among underserved populations. DFI delivers affordable and accessible financial services, enabling households to manage risks, stabilize consumption, and engage in productive activities. Corrado and Corrado (2017) demonstrated that household resilience is enhanced through DFI by strengthening long-term financial planning and economic participation, thereby supporting broader sustainable development objectives. Similarly, Suri and Jack (2016) reported that Kenya’s M-PESA substantially increased per capita consumption and elevated 194,000 households above poverty. Comparable outcomes have also been observed in other contexts, such as mobile financial services such as bKash in Bangladesh and the Pix payment system in Brazil, which have been used to extend financial access to millions of low-income households through cost-effective, technology-driven platforms (Duarte et al. 2022; Lee et al. 2020).

Collectively, these cases demonstrate how technology-driven financial services mitigate poverty by expanding financial access and reducing transaction barriers, particularly in regions underserved by traditional banking. this has been emphasized by Yang et al. (2025) that poverty is reduced through DFI by lowering service costs, improving access to financial information, and fostering transparency and social trust that facilitate economic participation of vulnerable groups. Similarly, Lee et al (2023) demonstrated that poverty alleviation is promoted through DFI via income growth and spatial spillover effects, while the relationship between DFI and poverty reduction has been shown to follow a “U-shaped” trajectory, reflecting both early-stage risks and long-term benefits of financial deepening.

Yang et al (2022) found that urban integration is facilitated through DFI with regard to migrant workers. Tsao and Tsaih (2023) developed an AI-based microloan platform to evaluate migrant workers’ credit scores and default risks, thereby improving the accessibility of financial services. However, Ozili (2020) cautioned that digital finance may intensify internal inequalities in the financial system and increase both the types and levels of risk faced by poor populations. Despite these divergent academic perspectives, empirical evidence regarding the impact of DFI on the MP of young migrant workers is limited. As this group is both digitally active and structurally disadvantaged, this study presents significant research value. From the Capability Approach perspective, the potential enhancement of substantive freedoms in areas such as education, health, and employment may be achieved through DFI, rendering it a crucial tool in alleviating MP. Accordingly, the following hypotheses are proposed:

Hypothesis 1.

DFI helps alleviate MP among young migrant workers.

Existing research revealed significant regional variations in the effects of DFI due to differences in institutional environments and development foundations. These variations manifest in the ways DFI reduces MP and promotes social integration. Wang et al. (2024) found that stronger MP-reducing effects of DFI occur in central and western regions, as well as in rural areas, through the enhancement of credit access, building of social capital, and the promotion of non-agricultural employment, particularly in regions underserved by traditional financial services. Yang et al (2022) found that inclusive digital finance services more effectively support migrant urban integration in Chinese cities outside the top 100 than in first-tier cities, indicating that city-level disparities influence the effectiveness of DFI in reducing poverty. Furthermore, it has been highlighted that digital infrastructure is more developed in southern China, where the impact of DFI on migrant urban integration is correspondingly greater. Collectively, these findings underscore the critical role played by regional disparities in infrastructure development, financial access, and urban structure in shaping DFI outcomes. Accordingly, the following hypotheses are proposed:

Hypothesis 2.

The impact of DFI on the MP of young migrant workers varies significantly across regions, with stronger effects observed in the western region.

Regarding the susceptibility of DFI to “elite capture,” divided perspective has been expressed in the scholarly literature. Balakumar and Maitra (2023) argued that, in weak institutional environments, credit allocation is often influenced by politically connected families, thereby undermining financial inclusion. Gabor and Brooks (2016) argue that data commodification and closed algorithmic systems in digital finance may result in the concentration of financial power and perpetuation of inequality. Ozili (2018) warned that insufficient regulation could widen the “digital divide,” thereby leaving vulnerable populations exposed to fraud and gender-based discrimination. Conversely, digital finance has been demonstrated to substantially reduce geographic barriers and transaction costs, thereby improving financial access for disadvantaged groups. Mobile services, such as mobile payments, address traditional banking constraints, especially in remote regions, while digital risk control reduces information asymmetry, enabling low-income individuals, rural residents, and women to access financial services at lower costs (Munyegera and Matsumoto 2016; Khera et al. 2022; Wang et al. 2024; Yang et al 2022). Although young migrant workers demonstrate strong digital literacy, structural barriers are encountered, including household registration limitations, inadequate social security, and restricted formal employment opportunities, all of which constrain their access to essential life domains such as income, education, health, and information. If DFI platforms successfully overcome obstacles such as geographic isolation, administrative complexity, and identity verification requirements, opportunities can be expanded, service accessibility can be enhanced, information access can be improved, and job security can be strengthened, thereby fostering development potential. Accordingly, the following hypothesis is proposed:

Hypothesis 3.

DFI targeting young migrant workers is not subject to elite capture.

Several studies have explored the nonlinear and contextual mechanisms through which DFI alleviates poverty. Lee et al (2023) found that DFI promotes poverty alleviation while exhibiting a U-shaped nonlinear relationship, implying that financial inclusion may initially increase poverty risks before long-term benefits are generated as digital infrastructure and governance improve. In contrast, Wang et al. (2024) demonstrated that the poverty-reduction effects of DFI depend on the broader financial environment; once the financial system has crossed a threshold of institutional maturity, the impact on MP becomes significantly stronger, particularly through credit access, social capital, and non-agricultural employment. Collectively, these findings imply that the effectiveness of DFI is both nonlinear and context-dependent, strengthening as institutional and environmental capacities improve. Accordingly, the following hypothesis is proposed:

Hypothesis 4.

The relationship between DFI and the MP of young migrant workers is hypothesized to follow an inverted U-shaped pattern, with initial negative effects that become positive at higher DFI levels.

3 Methods

This study implements a multilevel analytical framework to examine the influence of DFI on MP among young migrant workers. The analysis is grounded in established poverty theories, particularly Sen’s Capability Approach and the Alkire- Foster measurement method, and MPI is used as the primary metric to capture the multifaceted nature of poverty. The selection of the MPI is especially appropriate for this research, as it encompasses multiple dimensions of deprivation, thereby allowing a comprehensive assessment of poverty among young migrant workers.

To investigate the relationship between DFI and MP and examine potential nonlinear effects, multidimensional perspectives are integrated with nonlinear regression analysis within the empirical framework. This methodology enables the, identification of how various DFI dimensions, including coverage breadth, usage depth, and digitalization level, affect poverty across different subgroups of young migrant workers.

Although the establishment of causality in cross-sectional data presents inherent challenges, appropriate econometric methods, including instrumental variable (IV) analysis, are employed to address potential endogeneity concerns and enhance the reliability of the findings.

3.1 Data Description

This study used data from the 2019 wave of the CHFS, administered by the Survey and Research Center for China Household Finance at Southwestern University of Finance and Economics. The CHFS implemented a comprehensive multistage sampling strategy based on probability proportional to size, covering 29 mainland Chinese provinces, with the exception of Xinjiang and Tibet. High standards of data quality and national representativeness are maintained, making the dataset a valuable resource for poverty, household finance, and social protection research.

The 2019 CHFS dataset comprises information from 34,643 households and 107,008 individuals. After data cleaning and selection criteria application, 11,066 valid observations representing young migrant workers are identified. In accordance with the classification of Chen et al (2025), young migrant workers are defined as individuals aged 18–34 who hold agricultural hukou registration and are employed in non-agricultural sectors.

For the measurement of DFI, the Peking University DFI Index is employed. This index is specifically designed for the Chinese context and provides a detailed assessment of digital financial services across regional and demographic variations. While the World Bank Group’s Global Findex offers broader international data on financial inclusion, the Peking University DFI Index incorporates three essential dimensions for analyzing the impact of DFI on marginalized groups: coverage breadth, usage depth, and digitalization level. These components are particularly relevant for evaluating financial inclusion among young migrant workers in China. Consequently, the Peking University DFI Index is selected for this study owing to its contextual specificity and detailed alignment with our research objectives.

3.2 Selection of Variables

3.2.1 Dependent Variables

The dependent variables in this study are MPI and the incidence of MP among young migrant workers. The MPI is constructed by integrating Sen’s Capability Approach with the Alkire- Foster dual threshold methodology, while simultaneously incorporating China’s “Two Worries and Three Guarantees” poverty alleviation framework. This framework emphasizes fulfilling basic needs, including adequate food, clothing, compulsory education, basic healthcare, and housing. A specialized MPI system tailored to this demographic group is developed to improve the accuracy of assessing MP conditions among young migrant workers based on existing research. Table 1 presents the detailed structure of this measurement system.

Table 1:

Multidimensional poverty index for young migrant workers.

Primary dimension Secondary indicator Indicator meaning Basis for selecting indicator
Family Economy Income Poverty =1 if household per capita income <2,995 yuan (2019 poverty line); =0 otherwise. Alkire and Santos (2014)
Education Status Education Poverty =1 if education level ≤ junior high school; =0 otherwise. Alkire and Santos (2014)
Health Status Health Poverty =1 if the self-rated health is poor/relatively poor; =0 otherwise Borga and D’Ambrosio (2021)
Social Security Pension Insurance =1 if no pension insurance; =0 otherwise World Bank Group (2014)
Medical Insurance =1 if no medical insurance; =0 otherwise World Bank Group (2014)
Living Standard Consumption Structure =1 if Engel’s coefficient > 0.6; =0 otherwise Ma and Mu (2024)
Housing Ownership =1 if no home ownership; =0 otherwise Alkire and Santos (2014)
Subjective Perception Life Satisfaction =1 if there is low life satisfaction; =0 otherwise Chiang et al. (2021)
Information Access Smartphone Ownership and Access =1 if no smartphone; =0 otherwise Rotondi et al. (2020)
Employment Quality Formal Employment =1 if no formal labor contract; =0 otherwise World Bank Group (2014)
  1. The MPI is constructed as a weighted aggregation of deprivations across multiple indicators. The selected dimensions are adapted from established international poverty measurement frameworks to reflect the unique socioeconomic conditions and multidimensional challenges experienced by young migrant workers in China.

The MPI for young migrant workers comprises eight dimensions: family economy, education, health, social security, living standards, subjective perception, information access, and employment quality. Each dimension is evaluated using specific indicators adapted from international poverty measurement frameworks to reflect the unique socioeconomic challenges faced by young migrant workers in China. These indicators capture both objective deprivations, such as income, housing, and insurance, and subjective factors, such as life satisfaction and access to information, thereby offering a holistic evaluation of poverty that extends beyond traditional monetary metrics.

  1. Income poverty, as defined by Alkire and Santos (2014), captures economic deprivation by assessing whether a household’s per capita income falls below the established poverty line.

  2. Education poverty, following Alkire and Santos (2014), reflects educational deprivation and is measured by low attainment levels, such as completing only junior high school or below.

  3. Health poverty, as defined by Borga and D’Ambrosio (2021), is assessed using self-rated health status as a proxy for health deprivation, based on the assumption that health perceptions capture broader underlying health challenges.

  4. Social protection gaps, as defined by the World Bank Group (2014), highlight the lack of pension and medical insurance as key indicators of insufficient coverage, which significantly contribute to heightened poverty risks.

  5. Consumption structure, following Ma and Mu (2024), is measured using an Engel’s coefficient exceeding 0.6, which signifies a survival-oriented consumption pattern in which households devote a substantial share of their income to basic necessities.

  6. Housing ownership, as defined by Alkire and Santos (2014), functions as a fundamental indicator of security, with the absence of ownership signifying deprivation and an inability to sustain stable living conditions.

  7. Subjective well-being, as described by Chiang et al. (2021), connects unhappiness to economic hardship and social exclusion, providing a non-monetary indicator of poverty that captures the emotional and social dimensions of deprivation.

  8. Information access, as defined by Rotondi et al. (2020), considers the lack of a smartphone as an indicator of information poverty, reflecting limited access to educational, social, and economic opportunities.

  9. Formal employment, as defined by the World Bank Group (2014), identifies formal work without a contract as a core indicator of job-related poverty reflecting income instability and the absence of social protection.

These indicators were carefully selected to capture multiple dimensions of poverty, providing a holistic assessment of deprivation that goes beyond income measures and reflects the unique socioeconomic challenges faced by young migrant workers in China.

Given m sub-dimensions and n samples, the observation matrix is represented as X = x i j n * m , where x ij denotes the observation value of the ith sample in the jth sub-dimension. The vector x i = (x i1,…,x im) represents the observation of the ith sample across all sub-dimensions, while C = c 1 , , c m T contains the critical threshold values for the m sub-dimensions. If x ij ≤ c j , the ith sample is considered poor in the jth sub-dimension and the corresponding poverty dummy variable d ij = 1; otherwise, d ij=0. The incidence rate of MP, denoted by H, is defined as the proportion of poor individuals in the total sample, H = q n , where q is the number of poor individuals. Specifically, H k = i = 1 n q k n focuses on the critical threshold k, with q(k) representing the MP occurrence status (dummy variable) for each sample. This study employs an equal-weighting method to construct the MPI, ensuring that each dimension contributes equally to the overall index, consistent with the principle of equal importance across dimensions of the Capability Approach. Equal weighting enhances methodological transparency and theoretical neutrality by avoiding the subjectivity of assigning unequal weights. The poverty intensity is calculated as A k = i = 1 n j = 1 m d i j m * i = 1 n q k , and the MPI is derived as M k =H k  × A k . Using this approach, the MP occurrence status and MPI for the young migrant worker group were identified in conjunction with Table 1.

3.2.2 DFI

The primary explanatory variable, DFI, is derived from the Peking University DFI Index, which has been widely applied in recent empirical studies (Liu and Guo 2023). The index encompasses three dimensions: coverage breadth, usage depth, and digitalization level, and it is matched to the provincial level sample with high precision. To reduce the influence of coefficient disparities and ensure comparability across regions, the DFI variable is transformed using the natural logarithm.

3.2.3 Control Variables

Several control variables, including age, age squared, gender, marital status, economic awareness, financial literacy, household size, debt level, youth dependency ratio, and old-age dependency ratio, are incorporated into the analysis. These variables are selected based on their theoretical and empirical ratios. Age and its squared term are included to capture potential nonlinear life-cycle effects, reflecting diminishing returns to experience and variations in poverty risks across different stages of life (Wang et al. 2024). Female-headed households exhibit a higher risk of MP than male-headed households, underscoring persistent gender-based disparities in poverty outcomes (Ma and Mu 2024). Marital status is also found to influence financial access, as married individuals tend to have greater opportunities for borrowing and investment, thereby improving their likelihood of engaging with formal financial services (Balakumar and Maitra 2023). Economic awareness and financial literacy reflect individuals’ understanding of economic systems and their ability to effectively manage personal finance. These skills facilitate informed decision-making regarding saving, investing, and risk management. Enhancing financial capability and economic judgment contributes to improved resource allocation and reduced likelihood of MP (Klapper et al 2013). High debt levels limit household consumption and constrain productive investment by reducing disposable income and restricting access to credit, thereby heightening the risk of MP (Collins et al. 2009). Similarly, a higher proportion of children and elderly dependents increases household resource burdens, intensifying the likelihood of deprivation across key dimensions such as health, education, and living standards (Borga and D’Ambrosio 2021).

3.3 Descriptive Statistical Analysis

Table 2 presents the descriptive statistics, showing that the MPI for young migrant workers is 32.8 %. The incidence of MP gradually declines from 93.8 % to 0 % as the deprivation threshold increases. At the individual level, the average age of the respondents was 26 years, with 52.3 % being male and 46.4 % being married. While 35.4 % of respondents possess financial knowledge, only 4.9 % demonstrate economic awareness. At the household level, the average family size is 4.6 members, with a debt ratio of 55.4 %, a child dependency ratio of 11.9 %, and an elderly dependency ratio of 4.8 %, indicating substantial financial and caregiving burdens among young migrant households.

Table 2:

Descriptive analysis of variables.

Variable N Mean Std. Dev. Min Max
MPI 11,066 0.328 0.149 0 0.938
DFI 11,066 5.702 0.079 5.573 5.934
Coverage Breadth 11,066 5.637 0.075 5.528 5.869
Usage Depth 11,066 5.656 0.128 5.417 5.992
Digitalization Level 11,066 5.95 0.046 5.857 6.087
Age 11,066 26.206 4.891 18 34
Age2/100 11,066 7.107 2.545 3.24 11.56
Gender 11,066 0.523 0.499 0 1
Marital Status 11,066 0.464 0.499 0 1
Economic Awareness 11,066 0.049 0.216 0 1
Financial Literacy 11,066 0.354 0.478 0 1
Household Size 11,066 4.604 1.601 1 10
Debt Level 11,066 0.554 0.497 0 1
Youth Dependency Ratio 11,066 0.153 0.164 0 0.75
Old-age Dependency Ratio 11,066 0.064 0.125 0 0.8
  1. DFI and its sub-dimensions, coverage breadth, usage depth, and digitalization level, are measured using the Peking University DFI Index and matched to data at the provincial level.

The threshold value represents the number of dimensions in which an individual must experience deprivation to be considered poor; as the threshold increases, individuals must be deprived in more dimensions to qualify as poor. Figure 1 illustrates that MP incidence declines with higher threshold, indicating that fewer individuals experience deprivation across multiple dimensions. Following Yi and Lu (2022), the primary threshold is set at 0.4, while a more stringent threshold of 0.5 identifies individuals deprived in at least half of the dimensions, reflecting more severe poverty. Based on these criteria, the incidence of MP among young migrant workers is 32.02 % at the 0.4 threshold and 20.75 % at the 0.5 threshold, providing a foundation for subsequent analysis.

Figure 1: 
Relationship between multidimensional poverty (MP) incidence and threshold value.
Figure 1:

Relationship between multidimensional poverty (MP) incidence and threshold value.

This study mapped the incidence of MP at the 0.4 and 0.5 thresholds across provincial-level administrative regions using sampling weights from the CHFS database, illustrating the prevalence of MP among young migrant workers in 2019. The visualization employs a standard map format (Figure 2), where darker shadings represent a higher incidence of MP. Provinces such as Guizhou, Yunnan, Gansu, Qinghai, and Hainan appear with darker color blocks, indicating that young migrant workers have elevated MP levels. This geographical representation provides an important reference for analyzing regional disparities in MP across China.

Figure 2: 
Incidence of MP among young migrant workers across provincial regions in 2019. Note: This map was derived from a standard map acquired from the Map Technical Review Center of China’s Ministry of Natural Resources, bearing the review number GS(2020)4,619. The foundational map boundaries remain unaltered.
Figure 2:

Incidence of MP among young migrant workers across provincial regions in 2019. Note: This map was derived from a standard map acquired from the Map Technical Review Center of China’s Ministry of Natural Resources, bearing the review number GS(2020)4,619. The foundational map boundaries remain unaltered.

3.4 Model Setting

3.4.1 Baseline Model

This study investigates the relationship between DFI and MP among young migrant workers. Using the Alkire and Foster (A&F) dual-threshold methodology, two individual-level dependent variables are defined: the MPI, a continuous variable, and MP incidence, a binary variable indicating whether an individual is poor. The MPI is analyzed using multiple regression, and the probability of MP occurrence is estimated using a Probit model. The econometric specifications are as follows:

(1) M P I i = β 0 + β 1 * D F I i + γ X i , j + ε i

(2) P r o b M P i = 1 = β 0 + β 1 * D F I i + γ X i , j + ε i

Here, MPI i represents the MPI for household I, and Prob (MP i  = 1) indicates the likelihood of MP for household i (1 = poor, 0 = non-poor). DFI i is the logged and one-period lagged DFI for household i, X i,j is a vector of control variables, and ε i is the random disturbance term.

3.4.2 Mechanism Analysis

This study employs both a moderating effect model and a quadratic term of DFI for the mechanism analysis, allowing the assessment of how DFI influences MP among young migrant workers across varying levels of mechanism variables while examining potential nonlinear effects. The model specification are as follows:

(3) M P I i = β 0 + β 1 * D F I i + β 2 * M i + β 3 * M i * D F I i + γ X i , j + ε i

(4) P r o b M P i = 1 = β 0 + β 1 * D F I i + β 2 * M i + β 3 * M i * D F I i + γ X i , j + ε i

(5) M P I i = β 0 + β 1 * D F I i + β 2 * D F I i 2 + γ X i , j + ε i

(6) P r o b M P i = 1 = β 0 + β 1 * D F I i + β 2 * D F I i 2 + F X i , j + ε i

Where M i , denote the mechanism variables in the moderating analysis, and D F I i 2 i s the quadratic term of the DFI capturing potential nonlinear effects. The other symbols have the same interpretations as in Equations (1) and (2).

4 Empirical Results

4.1 Baseline Regression Analysis

This analysis first estimates the baseline relationship between DFI and MP using a multiple regression model and then examines DFI’s impact on MP incidence using Probit models at 0.4 and 0.5 poverty thresholds, with the results presented in Table 3.

Table: 3:

Digital financial inclusion (DFI) and multidimensional poverty (MP).

(1) (2) (3)
MPI MP (0.4) MP (0.5)
DFI −0.136*** −0.924*** −1.412***
(−3.71) (−2.91) (−4.05)
Age −0.014*** −0.026 0.044
(−3.80) (−0.73) (1.04)
Age2/100 0.034*** 0.122* 0.003
(4.89) (1.79) (0.04)
Gender 0.009*** 0.064*** 0.065**
(3.45) (2.75) (2.53)
Marital Status −0.009* −0.069* −0.077
(−1.85) (−1.67) (−1.48)
Economic Awareness −0.010 −0.186** −0.124
(−1.42) (−2.45) (−1.59)
Financial Literacy −0.054*** −0.431*** −0.397***
(−14.71) (−11.81) (−9.73)
Household Size 0.007*** 0.052*** 0.052***
(4.63) (4.06) (3.85)
Debt Level 0.000 0.028 −0.008
(0.10) (0.86) (−0.22)
Youth Dependency Ratio 0.106*** 0.749*** 0.642***
(7.08) (5.61) (3.86)
Old-age Dependency Ratio 0.086*** 0.707*** 0.653***
(5.93) (5.14) (4.37)
Constant Term 1.186*** 4.218** 5.670***
(5.70) (2.29) (2.82)
N 11,066 11,066 11,066
Adj. R 2 0.096 \ \
Pseudo R 2 \ 0.058 0.063
  1. t-statistics are in parentheses; *p < 0.1, **p < 0.05, ***p < 0.01.

The analysis revealed a consistent and statistically significant negative relationship between DFI and MP. The ordinary least squares estimation shows that a one-unit increase in DFI is associated with a 0.136-unit reduction in the MPI. Probit model results further confirm this relationship, with significant negative coefficients of −0.924 and −1.412 at the 0.4 and 0.5 poverty thresholds, respectively. Collectively, these findings provide robust evidence supporting Hypothesis 1, indicating that DFI effectively alleviates MP among young migrant workers.

4.2 Robustness Test

To confirm the baseline results are robust and not dependent on model choice or sampling methods, three distinct robustness checks were conducted.

4.2.1 The Tobit Model Test

Because the MPI values are bounded between 0 and 1, the baseline specification is re-estimated using a two-limit Tobit model with appropriate bounds. The natural logarithm of DFI is the primary explanatory variable, and robust standard errors are clustered at the county level. As shown in Column 1 of Table 4, the DFI coefficient is negative and statistically significant, confirming that the DFI is consistent with the baseline findings.

Table 4:

Robustness test I.

(1) (2) (3) (4)
MPI MPI MP (0.4) MP (0.5)
DFI −0.136*** −0.112*** −0.733** −1.115***
(−3.71) (−2.74) (−2.11) (−3.01)
Control Variables
N 11,066 10,405 10,405 10,405
Adj. R 2 / 0.095 / /
Pseudo R 2 / / 0.058 0.061
  1. t-statistics are in parentheses; *p < 0.1, **p < 0.05, ***p < 0.01.

4.2.2 Exclusion of Municipal Samples

The analysis excludes the four centrally administered municipalities, Beijing, Shanghai, Tianjin, and Chongqing, from the regression analysis to account for potential systematic variations in economic governance and development patterns. The results reported in columns 2 of Table 4 remain consistent with the baseline findings, confirming the robustness of the estimate.

4.2.3 Propensity Score Matching

To address selection bias, the study designates observations above the sample median of DFI as the treatment group and the remaining observations as the control group, applying propensity score matching based on baseline covariates using a logit model. Both kernel matching and 1:1 nearest-neighbor matching methods are used. Table 5 reports the balance diagnostics under kernel matching: before matching, most covariates exhibited p-values below 0.05 and standardized biases exceeding 10 %, whereas after matching, p-values generally exceeded 0.05 and standardized biases mostly fell below 10 %, indicating a substantial improvement in covariate balance. For instance, the standardized bias for age decreases from 13.3 % to 0.7 %, and financial literacy decreases from 13.3 % to 3.5 %. Figures in the Appendix, including the common support plot and standardized bias plot, confirm the effectiveness of the matching procedure.

Table 5:

Results of balance test.

Variable Unmatched Mean %Bias %Reduct bias t-test
Matched Treated Control t p > t
Age U 26.543 25.896 13.3 6.97 0.000
M 26.542 26.509 0.7 94.9 0.36 0.722
Age2/100 U 7.276 6.951 12.8 6.74 0.000
M 7.276 7.256 0.8 93.9 0.41 0.682
Gender U 0.526 0.521 1 0.53 0.598
M 0.526 0.526 0 99 0.01 0.996
Marital Status U 0.477 0.452 5 2.6 0.009
M 0.477 0.481 −0.8 83.9 −0.41 0.682
Economic Awareness U 0.041 0.057 −7.6 −3.99 0.000
M 0.041 0.036 1.9 74.7 1.11 0.266
Financial Literacy U 0.387 0.323 13.3 6.98 0.000
M 0.387 0.370 3.5 73.3 1.8 0.072
Household Size U 4.565 4.640 −4.7 −2.47 0.014
M 4.565 4.578 −0.8 82.4 −0.43 0.670
Debt Level U 0.517 0.588 −14.4 −7.54 0.000
M 0.517 0.531 −2.7 81.4 −1.37 0.171
Youth Dependency Ratio U 0.152 0.154 −1.5 −0.78 0.438
M 0.152 0.154 −1.4 2.1 −0.74 0.458
Old-age Dependency Ratio U 0.061 0.066 −3.9 −2.04 0.042
M 0.061 0.062 −0.4 89.1 −0.22 0.825
  1. The table reports unmatched and matched means (U/M), standardized percent bias, percent reduction in bias, and t-test statistics with their corresponding p-values.

Table 6 presents regression results for the MPI, MP at the 0.4 threshold, and MP at the 0.5 threshold using the matched samples in columns 1 through 3. Panel A reports results based on kernel matching, Panel B uses 1:1 nearest-neighbor matching, and Panel C applies entropy balancing. The DFI coefficients remain negative and statistically significant across all matching methods and outcome variables, confirming the robustness of the baseline findings.

Table 6:

Robustness test II: Matching methods.

(1) (2) (3)
MPI MP (0.4) MP.(0.5)
Panel A: Kernel Density Propensity Score Matching

DFI −0.140*** −0.957*** −1.406***
(−3.76) (−2.95) (−3.99)
Control Variables
N 11,064 11,064 11,064
Adj. R 2 0.092 / /
Pseudo R 2 / 0.058 0.061

Panel B: 1:1 Nearest-Neighbor Propensity Score Matching

DFI −0.118*** −0.880** −1.582***
(−3.09) (−2.38) (−4.15)
Control Variables
N 8,671 8,671 8,671
adj. R 2 0.085 / /
pseudo R 2 / 0.059 0.055

Panel C: Entropy Balancing Matching

DFI −0.143*** −1.036*** −1.463***
(−3.93) (−3.29) (−4.22)
Control Variables
N 11,066 11,066 11,066
Adj. R 2 0.096 / /
Pseudo R 2 / 0.059 0.063
  1. t-statistics in parentheses; *p < 0.1, **p < 0.05, ***p < 0.01.

4.2.4 Instrumental Variables

Despite comprehensive individual- and household-level controls, residual endogeneity concerns may persist. To address this, three external instruments were employed for log DFI. First, a Bartik (shift-share) instrument was constructed, defined as the interaction between lagged DFI and its first difference following Bartik 2009. The log of this product in the first stage was incorporated as follows:

B a r t i k I V = D F I i , t 1 * Δ D F i t , t 1

Where i indexes provinces and t indexes years; We set t=2019 (so t‐1=2018). DFI i,t‐1 denotes baseline DFI,and ΔDFi t,t =DFI i,t -DFI i,t‐1 is the short-run change from 2018 to 2019. This interaction captures exogenous variation in DFI because province-level exposure to national digital financial trends (ΔDFi t,t‐1) is weighted by pre-existing local DFI intensity (DFI i,t‐1), which is predetermined and plausibly uncorrelated with contemporaneous shocks to multidimensional poverty. This shift–share design provides instrument relevance; identification relies on orthogonality between province-specific shocks and short-run DFI changes, conditional on controls.

Additionally, two traditional instruments are employed to enhance identification. IV1 (Internet penetration) represents the number of internet users per capita in 2019. The relevance stems from the scaling of core DFI functions with digital infrastructure and user access, while exclusion remains plausible with individual and household covariates controlled and errors clustered at the county level. IV2 (Distance to Hangzhou) represents the log of the distance from the provincial capital to Hangzhou plus one. Following Zhang et al. (2019), Hangzhou serves as China’s premier DFI’s hub, hosting major platforms and sophisticated fintech supply chains. DFI spreads outward from this hub through merchant onboarding, partner networks, payment systems, and credit-tech services. Greater distance increases integration and coordination costs while reducing exposure (relevance). Geographic distance remains predetermined and time-invariant; it should not directly affect MPI/MP (exclusion) conditional on covariates. Concerns about distance proxying broader regional development are addressed through extensive micro controls, county-level clustering for spatial correlation, and consistent second-stage estimates across three distinct instruments. Monotonicity appears plausible: increased distance from Hangzhou should not enhance exposure to digital finance driven by Hangzhou.

For MPI, linear IV models was implemented; for MP (0.4) and MP (0.5), IV-Probit was implemented; robust standard errors were clustered at the county level. Table 7 presents the results by panel (A: Bartik IV; B: Internet penetration; C: Distance to Hangzhou). The first-stage diagnostics indicate that the instruments are jointly significant, the null of underidentification is rejected, and the Kleibergen-Paap rk Wald F-statistic exceeds the Stock-Yogo 10 % critical value of 16.38. In the second stage, the DFI coefficient maintains its negative and statistically significant value, with magnitudes slightly larger than the baseline, confirming the robustness of the findings.

Table 7:

IV regression.

(1) (3) (4)
MPI MP (0.4) MP (0.5)
Panel A: Bartik IV First stage Second stage First stage Second stage First stage Second stage
Bartik_IV 0.293*** 0.293*** 0.293***
(169.44) (26.86) (26.86)
DFI −0.232*** −1.729*** −2.067***
(−5.42) (−4.79) (−5.51)
Controls
Underidentification 112.966***
Weak Identification 720.939
Wald Test of Exogneity 20.81*** 12.23***

Panel B: IV1 (Internet Penetration)

IV1 0.269*** 0.269*** 0.269***
(62.01) (12.52) (12.52)
DFI −0.322*** −3.037*** −2.795***
(−5.41) (−6.27) (−5.20)
Controls
Underidentification 48.030***
Weak Identification 720.939
Wald Test of Exogneity 15.08*** 6.22**

Panel C: IV2 (Distance to Hangzhou)

Bartik_IV −0.037*** −0.037*** −0.037***
(−79.23) (−16.28) (−16.28)
DFI −0.310*** −2.912*** −3.398***
(−8.47) (−6.65) (−6.31)
Controls
Underidentification 32.817***
Weak Identification 264.782
Wald Test of Exogneity 25.04*** 17.37***
  1. t-statistics in parentheses; *p < 0.1, **p < 0.05, ***p < 0.01

4.3 Heterogeneity Analysis

Given China’s substantial regional disparities in digital infrastructure, fiscal support, and other socioeconomic factors, the impact of DFI on MP is likely to be heterogeneous across regions. To examine this, the sample is divided into western and eastern-central subgroups, and separate regression analyses are conducted for each. Table 8 presents the results of these subgroup analyses.

Table 8:

Heterogeneity analysis.

(1) (2) (3)
Baseline regression Western China Eastern and central China
Panel A: MPI

DFI −0.136*** −0.134 −0.116***
(−3.71) (−1.08) (−3.01)
Control Variables
N 11,066 3,838 7,228
Adj. R 2 0.096 0.098 0.093
pseudo R 2 / / /

Panel B: MP (k=0.4)

DFI −0.924*** −0.526 −0.918***
(−2.91) (−0.52) (−2.73)
Control Variables
N 11,066 3,838 7,228
Adj. R 2 / / /
pseudo R 2 0.058 0.061 0.059

Panel C: MP (k=0.5)

DFI −1.412*** −2.373** −1.116***
(−4.05) (−2.26) (−3.04)
Control Variables
N 11,066 3,838 7,228
Adj. R 2 / / /
pseudo R 2 0.063 0.078 0.057
  1. t-statistics are in parentheses; *p < 0.1, **p < 0.05, ***p < 0.01.

Table 8 shows that at the 0.5 MP threshold, the overall DFI coefficient is −1.412 and statistically significant at the 1 % level. In the eastern-central region, the coefficient is −1.116 (1 % significance), whereas in the western region, it is −2.373 (5 % significance), indicating a stronger poverty-reducing effect of DFI in the western region. However, the DFI effect in the western region is not statistically significant in other scenarios. These findings provide empirical support for Hypothesis 2.

5 Mechanism Analysis

To explore the mechanisms through which DFI influences MP among young migrant workers, this study employs three analytical approaches; first, assessing the effects of DFI’s primary sub-indices; second, examining the potential moderating role of elite capture, and third, testing for nonlinear effects by including a quadratic term. Tables 9 and 10 present the results of these analyses.

Table 9:

Mechanism analysis I: Effects of the primary sub-indices of DFI on MP.

(1) (2) (3) (4) (5) (6)
MPI MP (k=0.4) MP (k=0.5) MPI

IV
MP (0.4) IV-probit MP (0.5) IV-probit
Panel A: Coverage Breadth

DFI −0.149*** −1.091*** −1.429*** −0.207*** −1.596*** −1.893***
(−3.99) (−3.36) (−3.99) (−5.67) (−5.09) (−5.46)
Control Variables

N 11,066 11,066 11,066 11,066 11,066 11,066
Adj. R 2 0.096 / / 0.095 / /
Pseudo R 2 / 0.059 0.062 / / /

Panel B: Usage Depth

DFI −0.068*** −0.412** −0.743*** −0.159*** −1.184*** −1.420***
(−2.84) (−2.03) (−3.46) (−5.14) (−4.57) (−5.40)
Control Variables

N 11,066 11,066 11,066 11,066 11,066 11,066
Adj. R 2 0.094 / / 0.088 / /
Pseudo R 2 / 0.057 0.061 / / /

Panel C: Digitalization

DFI −0.234*** −1.497** −2.539*** −0.371* −2.516* −3.421**
(−3.57) (−2.72) (−4.19) (−2.53) (−2.02) (−2.72)
Control Variables

N 11,066 11,066 11,066 11,066 11,066 11,066
Adj. R 2 0.096 / / 0.094 / /
Pseudo R 2 / 0.058 0.063 / / /
  1. t statistics in parentheses; *p < 0.1, **p < 0.05, ***p < 0.01.

Table 10:

Mechanism analysis II: Examination of the moderating effect of elite capture.

(1) (2)
MP (0.4) MP (0.5)
DFI −0.917*** −1.422***
(−2.72) (−3.87)
Institutional Employment −3.838 −4.026
(−1.04) (−0.94)
DFI × Institutional Employment 0.536 0.585
(0.83) (0.78)
Control Variables
N 11,066 11,066
Pseudo R2 0.082 0.080
  1. t-statistics in parentheses; *p < 0.1, **p < 0.05, ***p < 0.01.

5.1 Sub-indices of the DFI

Panels A, B, and C of Table 9 report the effects of DFI’s sub-indices, coverage breadth, usage depth, and digitalization, respectively. Columns (1)–(3) present regressions without IV using MPI and the two MP thresholds as dependent variables, whereas Columns (4)–(6) show the corresponding IV regression results. The findings indicate that all three sub-indices significantly reduce MP among young migrant workers, with digitalization exhibiting the strongest and most consistent effect, followed by coverage breadth and usage depth across all model specifications.

5.2 Elite Capture

To investigate potential elite capture effects, this study uses “institutional employment” as a proxy, defined as households with at least one member working in a government or public institution. Individuals with institutional employment may enjoy privileged access to financial services through stable incomes, professional networks, and governmental connections, potentially leading to preferential financial terms or enhanced access to formal financial products. An interaction term between DFI and institutional employment is included in the analysis to determine whether elite capture moderates the relationship between DFI and MP.

Table 10 shows that DFI retains a significant negative relationship with MP across both models, with coefficients of −0.917 and −1.422, each significant at the 1 % level. The analysis further indicates that neither institutional employment nor its interaction with DFI is statistically significant. These findings support Hypothesis 3, indicating that DFI’s poverty-reducing effects occur independently of elite employment status, demonstrating that the benefits of digital financial inclusion are broadly inclusive.

The use of institutional employment as a proxy for elite capture has certain limitations. Although it captures some aspects of privileged access to financial resources, it may not reflect all dimensions of elite capture, especially those arising from political connections or extensive social networks. Moreover, employment in the government or public sector does not always confer substantial financial advantages. Owing to data constraints, institutional employment serves only as an approximate measure and may not fully capture the broader manifestations of elite capture.

5.3 Nonlinear Effects

This analysis investigates nonlinear effects by including a DFI squared term. Table 11 shows that the linear DFI coefficient is significantly positive in models (1), (2), and (3), while the quadratic term is significantly negative, indicating a concave (inverted-U) relationship between DFI and poverty. This suggests that at lower levels of DFI, MPI or MP may initially increase, but beyond a specific threshold, the marginal effect turns negative and DFI begins to reduce poverty. The estimated turning points are 5.646, 5.671, and 5.621 for models (1), (2), and (3) are 5.646, 5.671, and 5.621 respectively (Table 11), all within the observed DFI range of [5.5726, 5.9342] (Table 12).

Table 11:

Mechanism analysis IV: Non-linear effect of DFI on MP.

(1) (2) (3)
MPI MP (0.4) MP (0.5)
DFI 9.269** 100.333*** 80.496*
(2.27) (2.77) (1.81)
DFI2 −0.821** −8.845*** −7.161*
(−2.31) (−2.81) (−1.85)
Extreme Point 5.646 5.671 5.621
Control Variables
N 11,066 11,066 11,066
Adj. R 2 0.097 / /
Pseudo R 2 / 0.060 0.064
  1. t-statistics in parentheses; *p < 0.1, **p < 0.05, ***p < 0.01.

Table 12:

U-test results.

Lower bound Upper bound
Interval 5.5726 5.9342
Slope 0.1200 −0.4736
t-value 2.1073 −6.4218
P>|t| 0.0176 0.0000

A formal U-test for the OLS specification using MPI, presented in Table 12, confirms the inverted-U relationship: the slope at the lower bound is positive (0.1200, p = 0.0176), while the slope at the upper bound is negative (−0.4736, p < 0.001), with the extremum falling within the observed interval. Consistent with the estimated threshold, 76.73 % of the observations (8,491 of 11,066) have DFI values above 5.646, indicating a negative marginal effect. This percentage comes from the descriptive statistics. This finding explains the negative coefficient in the baseline linear model, as most observations fall to the right of the turning point where the slope is negative. Figure 3 illustrates the estimated DFI–MPI relationship, with red vertical lines marking the observed support [5.5726, 5.9342] and a green dashed line indicating the turning point at 5.646. These results support Hypothesis 4, demonstrating that the impact of DFI on MP exhibits a nonlinear pattern.

Figure 3: 
Inverted-U relationship between digital financial inclusion and the multidimensional poverty index.
Figure 3:

Inverted-U relationship between digital financial inclusion and the multidimensional poverty index.

6 Discussion

This study demonstrates that DFI significantly reduces MP among young migrant workers, confirming its effectiveness as an empowerment mechanism for structurally disadvantaged populations (H1). The analysis shows that all three sub-divisions, namely, coverage, usage depth, and digitalization, exert statistically significant effects, with digitalization having the strongest impact. This finding supports Afjal (2023) and Khera et al. (2022), who argue that “accessibility outweighs usage depth,” highlighting the importance of lowering entry barriers and enhancing service responsiveness. Technology-driven financial services are particularly effective in expanding opportunities for marginalized groups. These results align with those of Corrado and Corrado (2017), who emphasized the role of DFI in strengthening household resilience, and with those of Suri and Jack (2016), who documented the impact of M-PESA on extreme poverty. Additionally, Yang et al (2022) underscore the role of DFI in facilitating urban integration of migrant workers. Viewed through the Capability Approach, DFI broadens individuals’ substantive freedoms in education, health, and employment by enhancing financial access and adaptability.

The study finds that DFI’s poverty-reducing effect is significantly stronger in western China than in the central and eastern regions (H2), highlighting the role of regional development conditions. This aligns with Wang et al.’s. (2024) concept of the “diminishing marginal utility of financial supply” and Yang et al (2022) observation that DFI promotes greater inclusivity in smaller cities. In western regions, where traditional financial services are limited and digital infrastructure is less developed, DFI fills critical gaps through mobile and digital channels, serving as a vital mechanism for reducing financial disparities. Conversely, central and eastern regions, which have more advanced financial systems and higher digital literacy, have already realized substantial improvements in financial access, resulting in more modest incremental benefits from DFI. These findings underscore the importance of designing region-specific DFI strategies tailored to local infrastructure and digital capacities to maximize poverty-reduction outcomes.

The analysis using an institutional-employment proxy finds no evidence of “elite capture” in young migrant workers’ access to DFI (H3), indicating broad-based inclusivity. However, this conclusion is constrained by data limitations and relies on a proxy measure. This finding aligns with those of Suri and Jack (2016) and Yang et al (2022), who showed that digital finance reduces geographic and social barriers, unlike traditional financial systems, where political connections often affect resource allocation (Cheng et al (2021). Nonetheless, potential risks remain: As Gabor and Brooks (2016) and Ozili (2020) warn, opaque algorithms, inadequate regulation, and predatory lending can expose vulnerable populations to over-indebtedness, financial exclusion, and privacy breaches. These insights highlight the importance of balancing expanded access with protective measures.

Although this study focuses on young migrant workers in China, its broader applicability warrants careful consideration. China’s unique dual urban-rural structure and hukou system limit its direct comparability with other countries. Nonetheless, many emerging economies face similar challenges, including rural-to-urban migration, limited access to traditional financial services, and growing reliance on digital finance. Consequently, the identified mechanisms, such as the critical role of digital access and infrastructure, regional disparities, and the importance of inclusive strategies, are likely relevant in contexts across Africa, Southeast Asia, and Latin America.

Finally, the analysis confirms an inverted U-shaped relationship between DFI and MP (H4), which is consistent with the findings of Cheng (2023) and Wang et al. (2024). In the initial phases of DFI expansion, poverty may temporarily intensify due to limited access and adoption barriers; however, as digital infrastructure improves and service costs decline, DFI’s poverty-reducing effects strengthen. This indicates that the effectiveness of DFI is contingent on the broader financial ecosystem, reaching its full potential only once key developmental thresholds are met.

7 Conclusions, Contributions, and Limitations

This study systematically investigates how DFI enhances the substantive freedoms of young migrant workers and alleviates their MP using the 2019 CHFS and Sen’s Capability Approach. The key findings are as follows: (1) MP among young migrant workers remains substantial, with a national MPI average of 34.09 % and poverty rates of 32.02 % and 20.75 % at the 0.4 and 0.5 thresholds, respectively, reflecting significant functional deprivations; (2) DFI significantly reduces MP, with digitalization exerting the strongest effect, underscoring the superior effectiveness of technology-driven financial services in converting financial access into real opportunities; (3) DFI’s poverty-reduction impact is stronger in western regions despite infrastructure constraints, illustrating its “capability compensation” role in underserved areas; (4) DFI resource allocation shows no evidence of elite capture, highlighting institutional fairness and inclusiveness; and (5) the relationship between DFI and MP exhibits a nonlinear inverted U-shaped pattern, wherein initial exclusionary effects weaken as access improves, after which DFI markedly reduces MP.

This study offers four notable theoretical contributions. First, the Capability Approach is applied to analyze MP among young migrant workers, broadening poverty research by focusing on the specific challenges faced by mobile populations. Second, it examines micro-level mechanisms through which DFI affects MP, addressing financial exclusion and service mismatches, thereby strengthening the theoretical foundation of poverty governance. Third, it empirically challenges the conventional “elite capture” thesis, showing that disadvantaged groups can benefit from digital finance. Fourth, a nonlinear inverted U-shaped relationship between DFI and MP is identified and validated, refining theoretical models of digital finance by highlighting its limitations and potential adverse effects.

The study provides three key policy recommendations. First, an inclusive and sustainable digital financial infrastructure must be developed by ensuring platform interoperability and minimizing user costs, as demonstrated by Brazil’s Pix, Kenya’s BIMA, and mobile health savings products, which effectively mitigate poverty risks. Second, DFI strategies should be tailored to regional and institutional contexts, especially in underserved areas. Successful models, such as M-Pesa, bKash, and M-KOPA Solar, illustrate how mobile financial systems can overcome structural barriers and improve access to financial services and utilities. Third, strengthening financial literacy and risk management among young migrant workers through integrated, user-friendly evaluation tools, mobile insurance products, and app-based financial education programs will enable informed decision-making and promote long-term financial stability.

This study has several limitations. First, reliance on cross-sectional data from 2019 limits causal inference and the ability to assess long-term dynamics. Future research should employ longitudinal or panel data to evaluate sustained effects and test the generalizability of DFI’s poverty-reduction mechanisms across diverse contexts. Second, while single-item indicators were used to measure different poverty dimensions, they may not fully capture the multidimensional nature of poverty in other settings. Although suitable for young migrant workers in China, their validity and reliability elsewhere warrant further investigation, and future studies should consider multi-item measures for a more comprehensive assessment. Finally, although regional disparities were considered, potential spatial correlation and omitted macroeconomic factors remain unaddressed. Future research could employ spatial econometric models such as the spatial durbin model (SDM), spatial autoregressive model (SAR), or Spatial Error Model (SEM) to better capture regional spillovers and macroeconomic influences on the effectiveness of DFI in alleviating poverty.


Corresponding author: Hongmei Ma, PhD, School of Public Administration, Guizhou University, Guiyang, 550025, China, E-mail:

  1. Funding information: This research was supported by the National Social Science Fund of China (Project No. 22XSH018): “Research on Strategies to Improve Employment Quality of Young Migrant Workers in Ethnic Minority Areas of Southwest China under the Background of Common Prosperity.”

  2. Author contributions: All authors have accepted responsibility for the entire content of this manuscript and consented to its submission to the journal, reviewed all the results and approved the final version of the manuscript. Conceptualization, T. L. and H. M. M.; methodology, T. L.; software, T. L.; validation, T. L., H. M. M. and Z. L. C.; formal analysis, T. L. and Z. L. C.; investigation, T. L., H. M. M. and Z. L. C.; resources, T. L.; data curation, T. L.; writing – original draft preparation, T. L. and Z. L. C.; writing – review and editing, T. L. and H. M. M.; visualization, T. L.; supervision, H. M. M.; project administration, T. L. and H. M. M.; funding acquisition, T. L. and H. M. M.

  3. Conflict of interest: Authors state no conflict of interest.

  4. Data availability statement: The datasets generated and/or analyzed during the current study are available from the corresponding author upon reasonable request.

Appendix
Figure A-1: 
Matching results of kernel density propensity score matching.
Figure A-1:

Matching results of kernel density propensity score matching.

Figure A-2: 
Balance test of kernel density propensity score matching.
Figure A-2:

Balance test of kernel density propensity score matching.

References

Afjal, M. 2023. “Bridging the Financial Divide: a Bibliometric Analysis on the Role of Digital Financial Services Within Fintech in Enhancing Financial Inclusion and Economic Development.” Humanities and Social Sciences Communications 10 (1): 1–27. https://doi.org/10.1057/s41599-023-02086-y.Search in Google Scholar

Alkire, S., and J. Foster. 2011. “Counting and Multidimensional Poverty Measurement.” Journal of Public Economics 95 (7–8): 476–87. https://doi.org/10.1016/j.jpubeco.2010.11.006.Search in Google Scholar

Alkire, S., and U. Kanagaratnam. 2020. “Revisions of the Global Multidimensional Poverty Index: Indicator Options and Their Empirical Assessment.” Oxford Development Studies 49 (2): 169–83. https://doi.org/10.1080/13600818.2020.1854209.Search in Google Scholar

Alkire, S., and M. E. Santos. 2014. “Measuring Acute Poverty in the Developing World: Robustness and Scope of the Multidimensional Poverty Index.” World Development 59: 251–74. https://doi.org/10.1016/j.worlddev.2014.01.026.Search in Google Scholar

Balakumar, S., and D. Maitra. 2023. “Do Political Connections or Elite Capture Matter in Access to Financial Services? Evidence from Indian Households.” Journal of Behavioral and Experimental Finance 39: 100840. https://doi.org/10.1016/j.jbef.2023.100840.Search in Google Scholar

Bartik, T. J. 2009. “How Do the Effects of Local Growth on Employment Rates Vary with Initial Labor Market Conditions?” In Upjohn Institute Policy Paper No. 2009-005. Kalamazoo, MI: W. E. Upjohn Institute for Employment Research.Search in Google Scholar

Borga, L. G., and C. D’Ambrosio. 2021. “Social Protection and Multidimensional Poverty: Lessons from Ethiopia, India and Peru.” World Development 147: 105634. https://doi.org/10.1016/j.worlddev.2021.105634.Search in Google Scholar

Cao, G., K. Li, R. Wang, and T. Liu. 2017. “Consumption Structure of Migrant Worker Families in China.” China and World Economy 25 (4): 1–21. https://doi.org/10.1111/cwe.12203.Search in Google Scholar

Chen, S., and M. Ravallion. 2007. “Absolute Poverty Measures for the Developing World, 1981–2004.” Proceedings of the National Academy of Sciences 104 (43): 16757–62. https://doi.org/10.1073/pnas.0702930104.Search in Google Scholar

Chen, Y., Y. Yan, and L. Chen. 2025. “The Impact of Economic Burden of Disease on Poverty Among Young Migrant Workers: Evidence from China.” Frontiers in Public Health 13: 1496014. https://doi.org/10.3389/fpubh.2025.1496014.Search in Google Scholar

Cheng, Z. 2014. “The New Generation of Migrant Workers in Urban China.” In Urban China in the New Era, 125–53. Berlin: Springer Berlin Heidelberg.10.1007/978-3-642-54227-5_7Search in Google Scholar

Cheng, Y. 2023. “Research on the Impact of the Development of Digital Financial Inclusion on Multidimensional Poverty.” Frontiers in Business, Economics and Management 7 (3): 42–5. https://doi.org/10.54097/fbem.v7i3.5275.Search in Google Scholar

Cheng, X. Y., J. Y. Wang, and K. Z. Chen. 2021. “Elite Capture, the “follow-up Checks” Policy, and the Targeted Poverty Alleviation Program: Evidence from Rural Western China.” Journal of Integrative Agriculture 20 (4): 880–90. https://doi.org/10.1016/s2095-3119(20)63444-x.Search in Google Scholar

Chiang, Y. C., M. Chu, Y. Zhao, X. Li, A. Li, C. Y. Lee, et al.. 2021. “Influence of Subjective/Objective Status and Possible Pathways of Young Migrants’ Life Satisfaction and Psychological Distress in China.” Frontiers in Psychology 12: 612317. https://doi.org/10.3389/fpsyg.2021.612317.Search in Google Scholar

Collins, D., J. Morduch, S. Rutherford, and O. Ruthven. 2009. Portfolios of the Poor: How the World’s Poor Live on $2 a Day. Princeton, NJ: Princeton University Press.Search in Google Scholar

Corrado, G., and L. Corrado. 2017. “Inclusive Finance for Inclusive Growth and Development.” Current Opinion in Environmental Sustainability 24: 19–23. https://doi.org/10.1016/j.cosust.2017.01.013.Search in Google Scholar

Duarte, A., J. Frost, L. Gambacorta, P. K. Wilkens, and H. S. Shin. 2022. “Central Banks, the Monetary System and Public Payment Infrastructures: Lessons from Brazil’s Pix.” SSRN Working Paper No. 4064528. https://doi.org/10.2139/ssrn.4064528.Search in Google Scholar

Gabor, D., and S. Brooks. 2016. “The Digital Revolution in Financial Inclusion: International Development in the Fintech Era.” New Political Economy 22 (4): 423–36. https://doi.org/10.1080/13563467.2017.1259298.Search in Google Scholar

Huang, Y., and Y. Zhang. 2019. “Financial Inclusion and Urban–Rural Income Inequality: Long-Run and Short-Run Relationships.” Emerging Markets Finance and Trade 56 (2): 457–71. https://doi.org/10.1080/1540496x.2018.1562896.Search in Google Scholar

Jindra, C., and A. Vaz. 2019. “Good Governance and Multidimensional Poverty: A Comparative Analysis of 71 Countries.” Governance 32 (4): 657–75. https://doi.org/10.1111/gove.12394.Search in Google Scholar

Kana Zeumo, V., A. Tsoukiàs, and B. Somé. 2014. “A New Methodology for Multidimensional Poverty Measurement Based on the Capability Approach.” Socio-Economic Planning Sciences 48 (4): 273–89. https://doi.org/10.1016/j.seps.2014.04.002.Search in Google Scholar

Khera, P., S. Ng, S. Ogawa, and R. Sahay. 2022. “Measuring Digital Financial Inclusion in Emerging Market and Developing Economies: A New Index.” Asian Economic Policy Review 17 (2): 213–30. https://doi.org/10.1111/aepr.12377.Search in Google Scholar

Klapper, L., A. Lusardi, and G. A. Panos. 2013. “Financial Literacy and Its Consequences: Evidence from Russia During the Financial Crisis.” Journal of Banking & Finance 37 (10): 3904–23. https://doi.org/10.1016/j.jbankfin.2013.07.014.Search in Google Scholar

Leal Filho, W., V. O. Lovren, M. Will, A. L. Salvia, and F. Frankenberger. 2021. “Poverty: A Central Barrier to the Implementation of the UN Sustainable Development Goals.” Environmental Science & Policy 125: 96–104. https://doi.org/10.1016/j.envsci.2021.08.020.Search in Google Scholar

Lee, C. C., R. Lou, and F. Wang. 2023. “Digital Financial Inclusion and Poverty Alleviation: Evidence from the Sustainable Development of China.” Economic Analysis and Policy 77: 418–34. https://doi.org/10.1016/j.eap.2022.12.004.Search in Google Scholar

Lee, J. N., J. Morduch, S. Ravindran, A. Shonchoy, and H. Zaman. 2020. “Poverty and Migration in the Digital Age: Experimental Evidence on Mobile Banking in Bangladesh.” American Economic Journal: Applied Economics 13 (1): 38–71. https://doi.org/10.1257/app.20190067.Search in Google Scholar

Liu, L., and L. Guo. 2023. “Digital Financial Inclusion, Income Inequality, and Vulnerability to Relative Poverty.” Social Indicators Research 170 (3): 1155–81. https://doi.org/10.1007/s11205-023-03245-z.Search in Google Scholar

Ma, W., and L. Mu. 2024. “China’s Rural Revitalization Strategy: Sustainable Development, Welfare, and Poverty Alleviation.” Social Indicators Research 174 (2): 743–67. https://doi.org/10.1007/s11205-024-03410-y.Search in Google Scholar

Mader, P. 2017. “Contesting Financial Inclusion.” Development and Change 49 (2): 461–83. https://doi.org/10.1111/dech.12368.Search in Google Scholar

Meagher, K. 2015. “Leaving No One Behind? Informal Economies, Economic Inclusion and Islamic Extremism in Nigeria.” Journal of International Development 27 (6): 835–55.10.1002/jid.3117Search in Google Scholar

Ministry of Human Resources and Social Security of the People’s Republic of China. 2019. Notice on the Issuance of the Vocational Skills Enhancement Plan for a New Generation of Migrant Workers (2019–2022). Beijing: Ministry of Human Resources and Social Security.Search in Google Scholar

Munyegera, G. K., and T. Matsumoto. 2016. “Mobile Money, Remittances, and Household Welfare: Panel Evidence from Rural Uganda.” World Development 79: 127–37. https://doi.org/10.1016/j.worlddev.2015.11.006.Search in Google Scholar

Neckerman, K. M., I. Garfinkel, J. O. Teitler, J. Waldfogel, and C. Wimer. 2016. “Beyond Income Poverty: Measuring Disadvantage in Terms of Material Hardship and Health.” Academic Pediatrics 16 (3): S52–S59. https://doi.org/10.1016/j.acap.2016.01.015.Search in Google Scholar

Ozili, P. K. 2018. “Impact of Digital Finance on Financial Inclusion and Stability.” Borsa Istanbul Review 18 (4): 329–40. https://doi.org/10.1016/j.bir.2017.12.003.Search in Google Scholar

Ozili, P. K. 2020. “Contesting Digital Finance for the Poor.” Digital Policy, Regulation and Governance 22 (2): 135–51. https://doi.org/10.1108/dprg-12-2019-0104.Search in Google Scholar

Rotondi, V., R. Kashyap, L. M. Pesando, S. Spinelli, and F. C. Billari. 2020. “Leveraging Mobile Phones to Attain Sustainable Development.” Proceedings of the National Academy of Sciences 117 (24): 13413–20. https://doi.org/10.1073/pnas.1909326117.Search in Google Scholar

Sen, A. 1985. Commodities and Capabilities. Amsterdam: North-Holland.Search in Google Scholar

Sen, A. 1999. Development as Freedom. Oxford: Oxford University Press.Search in Google Scholar

Suri, T., and W. Jack. 2016. “The long-run Poverty and Gender Impacts of Mobile Money.” Science 354 (6317): 1288–92. https://doi.org/10.1126/science.aah5309.Search in Google Scholar

Tang, S., P. Hao, and J. Feng. 2020. “Consumer Behavior of Rural Migrant Workers in Urban China.” Cities 106: 102856. https://doi.org/10.1016/j.cities.2020.102856.Search in Google Scholar

Tian, Y., Y. Chen, M. Zhou, and S. Zhao. 2021. “Institutional Design and Incentives for Migrant Workers to Participate in Social Insurance in China: Evidence from a Policy Experiment in Chengdu City.” Frontiers in Public Health 9: 736340. https://doi.org/10.3389/fpubh.2021.736340.Search in Google Scholar

Townsend, P. 1979. Poverty in the United Kingdom: A Survey of Household Resources and Standards of Living. Berkeley: University of California Press.10.1525/9780520325760Search in Google Scholar

Tsao, L. L., and R. H. Tsaih. 2023. “Smart Microfinance Platform Service for Migrant Workers.” In 2023 IEEE/ACIS 23rd International Conference on Computer and Information Science (ICIS), 103–8. Piscataway, NJ: IEEE.10.1109/ICIS57766.2023.10210228Search in Google Scholar

Wang, F., X. Zhang, C. Ye, and Q. Cai. 2024. “The Household Multidimensional Poverty Reduction Effects of Digital Financial Inclusion: A Financial Environment Perspective.” Social Indicators Research 172 (1): 313–45. https://doi.org/10.1007/s11205-023-03298-0.Search in Google Scholar

World Bank Group. 2014. Global Monitoring Report 2014/2015: Ending Poverty and Sharing Prosperity. Washington, DC: World Bank Publications.Search in Google Scholar

Wu, Z., H. Long, and H. Song. 2024. “The Impact of Infrastructure Investment on Multidimensional Poverty. Evidence from Chinese Rural Migrant Workers.” Economic Systems 48 (3): 101239. https://doi.org/10.1016/j.ecosys.2024.101239.Search in Google Scholar

Yang, Z., T. Liu, and Y. Xiao. 2022. “Digital Finance and Migrant Workers’ Urban Integration: The Mediation Effect of the gender-earning Gap.” Frontiers in Public Health 10: 1076783. https://doi.org/10.3389/fpubh.2022.1076783.Search in Google Scholar

Yang, B., and D. Z. Qu. 2020. “Rural to Urban Migrant Workers in China: Challenges of Risks and Rights.” Asian Education and Development Studies 10 (1): 5–15. https://doi.org/10.1108/aeds-02-2019-0042.Search in Google Scholar

Yang, M., C. Wu, W. Wider, M. A. Fauzi, and E. B. Mutuc. 2025. “A Bibliometric Analysis of Digital Financial Inclusion: Current Trends and Future Directions.” Economics 19 (1): 20250156. https://doi.org/10.1515/econ-2025-0156.Search in Google Scholar

Yi, Y., and S. Lu. 2022. “Can Digital Inclusive Finance Alleviate Multidimensional Poverty Among Both New and Old Generations of Migrant Workers?” Collected Essays on Finance and Economics (6): 41–51.Search in Google Scholar

Zhang, X., G. Wan, J. Zhang, and Z. He. 2019. “Digital Economy, Inclusive Finance, and Inclusive Growth.” Economic Research Journal 54 (08): 71–86.Search in Google Scholar

Zheng, B., Y. Gu, and C. Zhang. 2021. “Migration, Social Exclusion, and Subjective Well-Being: Evidence from China Labor Dynamics Survey.” Chinese Political Science Review 7 (2): 197–215. https://doi.org/10.1007/s41111-021-00187-0.Search in Google Scholar

Zhou, Y., Z. Liu, H. Wang, and G. Cheng. 2023. “Targeted Poverty Alleviation Narrowed China’s urban-rural Income Gap: A Theoretical and Empirical Analysis.” Applied Geography 157: 103000. https://doi.org/10.1016/j.apgeog.2023.103000.Search in Google Scholar


Supplementary Material

This article contains supplementary material (https://doi.org/10.1515/econ-2025-0185).


Received: 2025-07-10
Accepted: 2025-11-30
Published Online: 2026-02-02

© 2026 the author(s), published by De Gruyter, Berlin/Boston

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