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Dengue and Climate Variability in Colombian Cities

Arboviral transmission in tropical urban environments is governed by complex non-linear interactions between meteorological fluctuations and localized ecological niches. Hydroclimatic forecasting models integrating sea surface temperature teleconnections and intra-urban microclimate indicators demonstrate robust predictive capacity for anticipating dengue outbreaks across diverse Colombian municipalities. Integrating biometeorological parameters into municipal public health frameworks enables proactive vector control and resource allocation prior to seasonal transmission peaks.

Objetivo

To evaluate the relationship between hydroclimatic variability and urban dengue incidence across diverse Colombian cities to inform climate-driven early warning systems.

Metodología

Comparative desk-based synthesis of peer-reviewed hydroclimate forecasting models, meteorological time-series records, and urban climate zone analyses.

Novedad científica

Synthesizes multi-lead hydroclimatic forecasting models and urban morphology frameworks across distinct Colombian geographical contexts.

Vista previa del documento

Esta es una vista previa breve. La versión completa incluye texto ampliado para todas las secciones, una conclusión y una bibliografía formateada.

Master's Thesis

Degree:
Dengue and Climate Variability in Colombian Cities

Author:

Group

First M. Last

Advisor:

Dr. First Last

City, 2026

Contents

Introduction
Theoretical Foundations of Vector-Borne Transmission and Urban Climatology
Biometeorological Drivers of Arboviral Life Cycles
Microclimate Heterogeneity and Local Climate Zones in Tropical Metropolises
Hydroclimatic Predictors and Teleconnection Dynamics
Precipitation and Thermal Anomalies Across Colombian Urban Geographies
Comparative Epidemiological Vulnerability in Colombian Urban Centers
Differential Transmission Profiles Across Cali, Medellín, Cúcuta, and Leticia
Infrastructure Deficits, Drainage Limitations, and Urban Heat Retention
Strategic Implications for Municipal Early Warning and Vector Control Systems
Conclusion
Bibliography

Introduction

Vector-borne viral pathogens represent a severe and escalating public health burden across tropical and subtropical urban environments, where rapid demographic expansion intersects with meteorological volatility [1], [5]. In Colombian urban centers, the transmission dynamics of dengue virus are tightly coupled with hydrothermal fluctuations, as ambient temperature, precipitation regimes, and atmospheric moisture directly dictate the reproductive fitness and viral replication rates of vector populations [2], [5]. Understanding these biophysical dynamics across heterogeneous urban landscapes is essential for anticipating localized epidemic surges.

Despite advances in meteorological observation, national epidemiological surveillance frameworks often rely on immediate case notifications, obscuring the lagged ecological dependencies governed by oceanic-atmospheric teleconnections and intra-urban microclimates [5], [6]. In rapidly growing Colombian municipalities, microclimatic variations produced by high-density built structures, inadequate stormwater drainage, and localized heat retention exacerbate vector proliferation, producing non-stationary transmission patterns that challenge conventional municipal control programs [4], [6].

This paper examines the relationship between hydroclimatic variability and dengue incidence across diverse Colombian urban settings, synthesizing climatological time series and epidemiological forecasting frameworks [5], [6]. By evaluating predictive models that incorporate macroclimatic indicators and local meteorological observations, the study clarifies how seasonal anomalies drive transmission thresholds [2], [5]. These insights provide operational evidence for municipal health authorities seeking to advance proactive, climate-informed early warning systems.

Discusión: Multi-Scale Hydroclimatic Dynamics and Urban Microclimate Realities

The critical synthesis of epidemiological and biometeorological scholarship demonstrates that incorporating hydroclimatic indicators substantially enhances subseasonal to seasonal dengue forecasting, yet fundamental operational tensions persist regarding spatial resolution and ecological scaling (Forecasting Dengue, 2025). While macro-scale meteorological fluctuations and teleconnection patterns govern broad regional epidemic periodicity across tropical zones (Worldwide Fluctuations, 2003), localized time-series analyses in Colombian urban environments like Cartagena de Indias reveal pronounced intra-annual precipitation and thermal variability that macro-level indices alone cannot adequately capture (Analysis of Climate Variability, 2022). Furthermore, evidence from tropical metropolitan areas underscores that microclimate heterogeneity across specific Local Climate Zones directly modulates Aedes aegypti infestation density and transmission risk (Urban Climate and Dengue Fever, 2025). A pronounced research gap remains in bridging macro-climatic projections with intra-urban ecological niches in Colombian cities. Most municipal models fail to dynamically integrate high-resolution urban heat retention and micro-drainage deficits into seasonal risk models. Additionally, critical analytical limitations must be acknowledged: public health data in Colombian municipalities frequently exhibit uneven case-reporting fidelity and temporal notification lags, while climate modeling is constrained by sparse weather monitoring infrastructure within dense informal settlements. Consequently, synthesizing subseasonal hydroclimatic forecasting with localized urban climatology represents an essential, yet operationally challenging, frontier for municipal early warning systems.

References

  1. Worldwide fluctuations in dengue fever cases related to climate variability
    MJ Hopp, JA Foley
    Enlace DOI
  2. Climate Variability and Dengue Hemorrhagic Fever in Surabaya, East Java, Indonesia
    Sandra Choi Ning Tang, Musofa Rusli, Pudji Lestari
    Enlace DOI
  3. Climate Variability and Dengue Fever Infections in Queensland, Australia
    Wenbiao Hu, Archie Clements, Gail Williams et al.
    Enlace DOI
  4. Urban Climate and Dengue Fever: Assessing Aedes aegypti Infestation across Local Climate Zones (LCZs) in Rio de Janeiro (Brazil)
    Antonio Carlos Oscar Júnior, Francisco Mendonça, Felipe José Soek et al.
  5. Forecasting Dengue: Evaluating the Role of Hydroclimate Information in Subseasonal to Seasonal Prediction.
    Maxwell R W Beal, Jorge Osorio, Karl Ciuoderis et al.
  6. Analysis of Climate Variability in a Time Series of Precipitation and Temperature Data: A Case Study in Cartagena de Indias, Colombia
    Alfonso Arrieta-Pastrana, Manuel Saba, Adriana Puello Alcázar
  7. The association between temperature, rainfall and humidity with common climate-sensitive infectious diseases in Bangladesh
    Fazle Rabbi Chowdhury, Quazi Shihab Uddin Ibrahim, Md Shafiqul Bari et al.
  8. Climatic variability and dengue risk in urban environment of Delhi (India)
    Samraj Sahay

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