Mexico is a highly unequal country, ranking among the most unequal in the OECD. When reading Thomas Piketty’s Capital in the Twenty-First Century, Piketty emphatically states that investment in knowledge and skills is the primary factor in reducing social inequalities. However, Mexico’s inequality extends beyond just differences in educational access across social strata—it manifests dramatically across geographic space.
Mexico’s sprawling metropolises and smaller urban centers are characterized by stark spatial segregation, creating clusters of children and families with vastly different access to education, healthcare, and basic services. This spatial dimension of inequality is particularly pronounced in border cities like Tijuana, where rapid population growth, informal settlements, and economic disparities create complex patterns of advantage and disadvantage.
This analysis explores the spatial patterns of infant poverty in Tijuana using detailed census data, revealing how geographic location intersects with socioeconomic vulnerability to shape children’s life chances.
Using comprehensive census data from INEGI (National Institute of Statistics and Geography), this study analyzed 24,561 neighborhoods across Tijuana, representing 1.94 million residents including 443,894 children (ages 0-14). The analysis reveals:
Distribution of child population (ages 0-14) across Tijuana neighborhoods showing dramatic spatial clustering
Thomas Piketty’s analysis of wealth concentration takes on particular relevance in the Mexican context. The spatial patterns observed in Tijuana reflect broader processes of capital accumulation and unequal access to human capital development opportunities.
The data reveals significant relationships between spatial location and socioeconomic outcomes:
Housing quality index across Tijuana shows clear correlation with child population density
The spatial clustering of vulnerability in Tijuana reveals clear patterns that can inform targeted policy interventions:
Geographic Targeting: High and extreme vulnerability clusters should be prioritized for social programs, educational infrastructure, and basic service improvements.
Integrated Approaches: The correlation between child population density, educational attainment, and housing quality suggests that effective interventions must address multiple dimensions simultaneously.
Border City Specifics: Tijuana’s position as a border city creates unique challenges, including high migration flows and informal settlement growth that require specialized urban planning approaches.
Human Capital Investment: Following Piketty’s emphasis on education and skills, targeted educational programs in high-vulnerability areas could help break intergenerational poverty cycles.
Four distinct vulnerability clusters
3D visualization of vulnerability patterns across Tijuana showing the spatial concentration of different risk levels with population density
Educational vulnerability patterns show concentration of low educational attainment in specific areas
This analysis employed a comprehensive geospatial data processing pipeline using Python 3.10:
Core Libraries:
Processing Steps:
Key Indicators Constructed:
(POB0_14 / POBTOT) * 100Data Limitations:
The study uses official INEGI census data at the AGEB (Basic Geostatistical Area) level, providing detailed neighborhood-level insights into poverty patterns with rigorous methodological validation.
The spatial analysis of infant poverty in Tijuana reveals a complex geography of advantage and disadvantage that extends far beyond simple income measures. The clustering of vulnerable populations in specific areas of the city reflects broader processes of urban development, migration, and capital accumulation that Piketty identified as drivers of inequality.
Most importantly, this analysis demonstrates that addressing infant poverty in Mexico requires understanding its spatial dimensions. Policy interventions that fail to account for the geographic clustering of disadvantage may miss opportunities for effective, targeted action.
This technical analysis was conducted using Python with GeoPandas, Pandas, and Scikit-learn for geospatial data processing and machine learning clustering. Original data source: INEGI (National Institute of Statistics and Geography), Mexico.