The Anthropocene challenge: Shifting perspectives and promoting student responsibility through geoscience literacy and risk awareness

This Learning Unit for high school students explores the relationship between natural hazards and human activity in the Anthropocene. By integrating Inquiry-Based Learning (IBL) with Geoscience data students investigate how industrialization and urban growth worsen environmental instability and systemic risks. A central issue is the analysis of Climate Equity, examining real-world data to highlight the paradox between industrialised countries – the primary contributors to climate change – and developing nations, which contribute the least yet face the most environmental impacts. Through Role-Play simulations and GIS mapping, these activities turn complex scientific concepts into a tool for critical thinking and global citizenship. Students move beyond theoretical knowledge to propose sustainable and fair mitigation strategies, enabling them to develop practical skills suitable for environmental protection and management.

Module 1: Climate Engine and Global Responsibility

Physical drivers of global warming and the intensification of extreme events.

Methodologies:

• Flipped Classroom: Students analyse NASA/ESA datasets on CO₂ and temperature anomalies before class.
• Inquiry-Based Learning (IBL): Correlation analysis between the rise of industrial activities and the frequency of thermal anomalies.
• Global Debate (Role Playing): A discussion on the "Historical Debt" of Industrialised Nations versus the vulnerability of Developing Countries, focusing on the concept of common but differentiated responsibilities.

Module 2: Anthropogenic Landscapes and Urban Growth

How urbanization, deforestation, and land-use change alter natural cycles.

Methodologies:

• Virtual Field Work: Monitoring "Urban Sprawl" and land consumption over the last 50 years by integrating satellite imaging (Google Earth Engine) and environmental datasets (Copernicus-CLMS, ISPRA-IdroGeo).
• Case Study Comparison: Investigating soil sealing in megacities (Industrialised context) versus rapid deforestation for resource export (Developing context).
• Tinkering: Creating digital flowcharts to visualize how human intervention breaks the natural hydrological cycle, leading to increased flood risks.

 

Module 3: Risk Management, Mitigation and Social Justice

Adaptation strategies, resilience, and ethical decision-making.

Methodologies:

• Problem-Based Learning (PBL): "The Resilient City Challenge"— students must design a mitigation plan for a specific local area at risk using environmental datasets (ISPRA-IdroGeo) and GIS tools.
• Role-Play / CoP (Conference of the Parties) Simulation: A simulated international negotiation where students represent different stakeholders (Scientists, Industrialists, NGOs, and Delegates from various nations) to allocate climate adaptation funds.
• Social Justice Perspective: Analysing why socio-economic factors make certain populations more "at risk" than others, even when facing the same natural event.

In conclusion, this Learning Unit leads students to achieve several key competencies such as:

• Understanding the deep link between Science and Society: Connecting Earth Science with Ethics and Economics by analysing the historical responsibility of industrialised nations.
• Developing Critical Thinking: Learning to look at the "human impact" not just as a biological fact, but as a socio-political choice.
• Practicing Active Citizenship: Using real-world data, students gain the ability to participate in the global climate conversation.