Impact of climate change on mental health: webinar by the German and South African national academies on an emerging field of research
Meeting Announcement
This July, we're exploring the science of heat. Whether it's shaping weather patterns, affecting marine ecosystems, influencing human health, or driving new technological solutions, heat plays a powerful role in our changing world. Join us as we examine the latest research uncovering how heat impacts people, places, and the planet.
Updates every hour. Last Updated: 21-Oct-2026 04:16 ET (21-Oct-2026 08:16 GMT/UTC)
How do extreme and rising temperatures affect people around the world and how can we ensure that people are thermally safe? A new CMCC‑led study, in collaboration with University of Bristol and Ca’ Foscari University of Venice, introduces the first multidimensional assessment of Systemic Cooling Poverty across 28 countries in the Global South, revealing how vulnerability to extreme heat is driven not only by climate but also factors such as infrastructure, inequality, health and work conditions. “Vulnerability to extreme heat is not just about income and energy poverty. It’s about the intersection between climatic and socio-institutional factors,” says lead author Giacomo Falchetta (CMCC).
A new study from the University of Copenhagen shows that marine heatwaves can disrupt microscopic moving structures on the surface of reef-building corals that support their oxygen uptake. When seawater temperature crosses a critical threshold, this oxygen supply mechanism collapses, increasing the risk of coral death.
In recent years, dengue transmission in Vietnam has transitioned from predictable seasonality to climate-driven instability due to rising temperatures, urbanization, and hydrological extremes, among other factors. Traditional early warning systems based on case averages are becoming increasingly unreliable because of climate non-stationarity, resulting in both false alarms and missed warnings. This perspective summarizes available research on temperature, drought, rainfall extremes, diurnal temperature range, heatwaves, and El Niño anomalies, highlighting biologically-based thresholds that have been observed to precede outbreaks. We advocate for a pragmatic, hybrid early warning system that combines probabilistic national models with operationally simple meteorological triggers adapted to localized conditions. Integrating One Health factors, such as water storage practices, urban livestock habitats, and climate-sensitive vector control technologies, can facilitate optimal responses. This climate-informed, trigger-based approach helps to provide a realistic dengue control and prevention strategy that navigates low-cost and “no regrets” interventions in the face of accelerated environmental change.