Climate Justice and Heat Inequity in Poor Urban Communities: The Lens of Transitional Justice, Green Climate Gentrification, and Adaptation Praxis
Abstract
1. Introduction
1.1. Climate Justice
1.2. Climate Injustice—Beyond Techno-Scientific Problem
2. Methods
2.1. Search Strategy and Study Selection
2.2. Analytic Method
3. Results and Findings
3.1. Heat Inequity: The Evolving Socio-Spatial Disparity of Urban Heat
Authors | Country/Region (Study Location) | Primary Methods | Findings |
---|---|---|---|
Sánchez-Guevara Sánchez et al. [2] | Madrid Spain (Global North) | Secondary statistical data | Poor households living in low-quality dwellings often encounter overheating issues and consequent health problems. |
Dialesandro et al. [4] | 20 Southwestern metropolitan regions in the USA (Global North) | Remote sensing and census data | Poor urban neighbourhoods experienced temperatures higher than affluent areas. |
Saverino et al. [6] | Richmond, Virginia USA (Global North) | Remote sensing | Areas inhabited by individuals of low socioeconomic status and minority groups disproportionately experience extreme heat. |
Jung et al. [26] | Belo Horizonte Metropolitan Region Brazil (Global South) | Remote sensing | The study revealed that low-income residents and the non-White population were statistically significantly associated with heat risks. Areas that house vulnerable social groups experienced inequities related to the urban heat island effect. |
Mitchell et al. [27] | New York, Los Angeles, Chicago USA (Global North) | Remote sensing and census data | Minority groups, along with social vulnerabilities such as race, age, ethnicity, and linguistic isolation, are significantly associated with increased overheating risks and thermal inequity. |
Sarricolea et al. [36] | Santiago Chile (Global South) | Remote sensing and census data | Areas characterised by middle and lower socioeconomic classes and poor environmental quality in the Santiago Metropolitan Area experience more severe urban surface heat islands. |
Adélaïde et al. [37] | France (Global North) | Remote sensing and weather data | The deprived census districts, characterised by overcrowded dwellings in urban settings, faced a greater risk of being hotspots for excessive heat exposure. |
Mitchell et al. [38] | Pinellas County, Florida USA (Global North) | Remote sensing and census data | Census tracts characterised by a high percentage of ethnic or racial minorities and high poverty rates are important factors influencing the spatial distribution of urban heat stress. |
Mitchell et al. [39] | Delhi India (Global South) | Remote sensing | Indicators of social vulnerability, such as households with access to electricity, have a significant influence on the heat risk index. |
McDonald et al. [40] | 100 urban areas larger than 500 km2 in the USA (Global North) | Remote sensing and census data | Low-income blocks have 15.2% less tree cover and are 1.5 °C hotter than high-income blocks. |
Rivera et al. [41] | Santa Clara, California USA (Global North) | Remote sensing | The findings indicate socioeconomic disparities and an uneven distribution of heat (land surface temperature) between Hispanics and non-Hispanic Whites. |
Li et al. [42] | Charlotte, USA (Global North) | Remote sensing | The land surface temperature in redlined areas (poor and low-income groups) is significantly higher than in non-redlined areas. |
3.2. Drivers of Heat Inequity: The Praxis of Transitional Injustice and Green ‘Climate’ Gentrification
3.2.1. Transitional Justice
Key Themes | Country | Authors | Main Findings |
---|---|---|---|
Transitional justice | USA (Global North) | Rigolon and Németh [43] | Historically, park funding systems have favoured wealthier neighbourhoods. At the same time, racially discriminatory land-use and housing policies that shape where low-income communities of colour can reside have resulted in some of the most profound and enduring inequities in access to parks. |
USA (Global North) | Boone et al. [46] | Segregation ordinances and racial covenants (including improvement associations) collectively established racially segregated Black spaces that were historically deprived of access to parks. | |
USA (Global North) | Wilson [52] | Neighbourhoods in Dallas, Baltimore, and Kansas City that were historically subjected to disinvestment through practices such as redlining are now increasingly exposed to extreme heat. Poor and minority residents remain overrepresented in formerly redlined areas in all three cities. | |
Austria (Global North) | Nier [45] | Land-use decisions and exclusionary zoning played a central role in shaping who can access key resources, most notably, green spaces. Minority groups often face greater segregation from urban green spaces and suffer greater heat stress than non-minorities. | |
South Africa (Global South) | Thukwana [51] | Historical divisions from the Apartheid system remain evident in the unequal distribution of urban green infrastructure, with predominantly Black, low-income neighbourhoods having limited access to public green spaces and experiencing disproportionately high heat stress. | |
Green climate gentrification | USA (Global North) | Kim et al. [53] | The development of green infrastructure has increased housing prices, pushing minority communities into less green and more heat-exposed areas. |
USA (Global North) | Shokry et al. [54] | Initiatives like green resilience planning, intended to protect vulnerable residents from climate risks, inadvertently lead to gentrification, thereby exacerbating heat vulnerabilities rather than alleviating them. | |
USA & Europe (Global North) | Planas-Carbonell et al. [55] | Green climate gentrification produces physical displacement and the ongoing threat of further displacement. There are also concerns that new (green) real estate developments and resilient greening initiatives will remain exclusionary for marginalised groups. | |
China (Global South) | Shi et al. [56] | Climate gentrification was linked to varying access to park cooling areas. Residents in the urban centre enjoyed better access to the cooling range provided by parks and benefited more from heat mitigation than those living outside the city centre. Housing prices increased near the cooling areas of urban parks. | |
Spain (Global North) | Anguelovski et al. [57] | Green gentrification has occurred in parks located in more desirable neighbourhoods, including the old industrial and waterfront areas within the Sant Martí and Ciutat Vella districts. Residents from the Global South, as well as retirees living in these neighbourhoods, have been pushed out and displaced by gentrification. | |
Adaptation praxis | USA (Global North) | Chen et al. [58] | Low-income households are associated with higher land surface temperatures and lower rates of air conditioning (AC) ownership, making them more vulnerable to the increasing urban heat. |
Germany (Global North) | Li et al. [59] | In high-density, low-income settlements with limited vegetation and narrow streets, nocturnal cooling through ventilation is often ineffective due to the high thermal mass of surrounding structures that retain daytime heat and slowly release it at night. | |
Hong Kong (Global South) | Ling et al. [60] | The adoption of green building strategies, such as green roofs and green façades, by low-income residents is severely constrained by cost-related barriers (the ability to afford and maintain rooftop green spaces). | |
USA and Europe (Global North) | Planas-Carbonell et al. [55] | Housing retrofits aimed at enhancing insulation and better climate adaptation often trigger the recommodification of housing. Working-class residents who are unable to afford rising rents are displaced to cheaper, non-retrofitted housing, which poses a higher risk of overheating. |
3.2.2. Green Climate Gentrification
3.3. Adaptation Praxis—Unequal Heat Adaptation and Coping Strategies
4. Discussion
5. Conclusions
Future Research
Author Contributions
Funding
Data Availability Statement
Conflicts of Interest
Abbreviations
PRISMA | Preferred Reporting Items for Systematic reviews and Meta-Analyses |
USA | United States of America |
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Fobi Kontor, M.; Brown, A.; Núñez Collado, J.R. Climate Justice and Heat Inequity in Poor Urban Communities: The Lens of Transitional Justice, Green Climate Gentrification, and Adaptation Praxis. Urban Sci. 2025, 9, 226. https://doi.org/10.3390/urbansci9060226
Fobi Kontor M, Brown A, Núñez Collado JR. Climate Justice and Heat Inequity in Poor Urban Communities: The Lens of Transitional Justice, Green Climate Gentrification, and Adaptation Praxis. Urban Science. 2025; 9(6):226. https://doi.org/10.3390/urbansci9060226
Chicago/Turabian StyleFobi Kontor, Maxwell, Andre Brown, and José Rafael Núñez Collado. 2025. "Climate Justice and Heat Inequity in Poor Urban Communities: The Lens of Transitional Justice, Green Climate Gentrification, and Adaptation Praxis" Urban Science 9, no. 6: 226. https://doi.org/10.3390/urbansci9060226
APA StyleFobi Kontor, M., Brown, A., & Núñez Collado, J. R. (2025). Climate Justice and Heat Inequity in Poor Urban Communities: The Lens of Transitional Justice, Green Climate Gentrification, and Adaptation Praxis. Urban Science, 9(6), 226. https://doi.org/10.3390/urbansci9060226