1. Introduction
The DANA event, commonly referred to as a “cut-off low” (torrential rains), struck the province of Valencia (in the east of Spain), on 29 October 2024, causing widespread devastation and resulting in 227 deaths [
1]. This event has underscored, among other concerns, the critical need to prioritize education and training in flood risk management. It is vital to enhance the knowledge of both students and educators, while also promoting experiential learning activities that foster resilience and mitigate vulnerability [
2]. Moreover, collaboration between schools, families, and public emergency management agencies is essential for effectively addressing this challenge, particularly in the context of the escalating impacts of climate change [
3].
Flood education is crucial for disaster preparedness, especially in flood-prone areas like Mediterranean Spain. The 2024 floods, which resulted in a significant loss of life, underscore the need for better public awareness and education. Despite the frequency of such disasters, studies show that educators often lack formal training in flood risk management, making school-based interventions inconsistent. Schools play a key role in equipping students with the knowledge to anticipate and respond to natural hazards, yet without proper teacher training, these efforts remain basic. Integrating flood risk education into school curricula can foster a culture of prevention and resilience, ensuring that students are prepared to recognize the risks and take action. Strengthening educational initiatives can also improve community-wide preparedness, reducing future casualties. This study seeks to address gaps in flood education by evaluating current teaching practices and proposing strategies to improve disaster literacy among educators and students.
Extreme weather events, driven by atmospheric dynamics, have intensified and become more frequent [
4]. In this regard, Muñoz et al. [
5] observed a 20% increase in the occurrence of cut-off low events at mid-latitudes in the Mediterranean region between 1960 and 2017. This region, recognized as a “high-risk area” due to its inherent characteristics, has been subjected to natural phenomena of significant magnitude and substantial destructive potential, representing a major threat to both human life and economic stability [
6].
Globally, the Centre for Research on the Epidemiology of Disasters [
7] reported 399 catastrophic events in 2023. Floods constituted 41% (
n = 164) of these events. In 2023 alone, flooding claimed the lives of 7763 people worldwide, surpassing the 2003–2023 average of 5518 fatalities. Countries such as the Democratic Republic of the Congo (2970 deaths), India (1529 deaths), and Nigeria (275 deaths) were particularly affected [
7].
In terms of economic losses, these totaled USD 20.4 billion, accounting for 10% of the overall damage, with Italy experiencing the highest financial impact (USD 9.8 billion) [
7]. At first glance, it appears that underdeveloped and developing countries are more vulnerable to fatalities, while developed nations face greater economic losses.
In Spain, such events represent the leading cause of material damage and loss of life, with 800 fatalities recorded over the past two decades [
8], in addition to more than 200 deaths being caused by the 2024 DANA event nationwide [
1].
Pérez-Morales et al. [
9] explain that both human and economic losses stem not only from the severity of atmospheric phenomena but also from the high exposure experienced by the population. Consequently, many countries have made progress in terms of risk education, fostering greater social responsibility and awareness to mitigate the impact of floods and, in turn, reduce the risks associated with these events [
10,
11,
12,
13]. Understanding the causes, effects, and preventive measures of such events from an early age helps shape more responsible and better-prepared citizens [
14]. Students learn to identify factors that exacerbate risk, such as deforestation, uncontrolled urbanization, and the obstruction of natural drainage systems. Additionally, the students develop practical skills, including interpreting risk maps, recognizing warning signs, and planning evacuation routes [
15].
In the current context of climate change, integrating the study of these phenomena into the school curriculum is essential [
16]. This approach not only raises environmental awareness among students and their families but also equips them with practical tools to navigate the challenges of their surroundings [
17]. Activities such as drills and community projects reinforce their sense of responsibility and teamwork [
18]. This educational framework integrates scientific knowledge, practical skills, and ethical values, fostering a generation that is both informed and proactive in addressing climate change [
19]. In summary, education about flood risk is an investment in safety, sustainability, and future well-being [
20].
A few years ago, Morote [
21] highlighted that education on natural hazards had been insufficiently integrated into efforts aimed at reducing social vulnerability to these risks. However, recently, various policies have been introduced to enhance public education on climate change, sustainability, and natural hazards. For example, the United Nations [
22] has advocated for the adoption of the Sustainable Development Goals (SDGs) outlined in its 2030 Agenda, including “Climate Action” (SDG no. 13), as well as the Sendai framework for disaster risk reduction (2015–2030) [
23], which places a particular emphasis on the education and training of the public regarding these phenomena.
In Spain, significant legislation on the topic includes the Climate Change Law (Law 7/2021, of 20 May), which outlines educational measures on climate change in Title VIII [
24]. Similarly, within the Valencian Community (study area), the Government enacted Law 6/2022 on 5 December, addressing climate change and ecological transition. Of note, Title V emphasizes climate change education under the section “Policies for Awareness-Raising, Education, and Exemplification in Administration” [
25]. Furthermore, in the context of the academic curriculum, the LOMLOE (2020) places a stronger focus on climate change and its impacts compared to its predecessor, the LOMCE (2013) [
20,
26].
The growing emphasis on teaching students about climate change has also driven significant scientific output, particularly in the study of natural hazards, with a specific focus on floods. This is reflected in numerous studies conducted across different regions, including North America [
27], Europe [
13,
28,
29,
30,
31], South and Central America [
32], Asia [
19,
33,
34], Oceania [
35], and Africa [
36,
37].
In Spain, while extensive research has been carried out in the realm of natural sciences didactics [
38], the field of geography didactics has only recently begun to receive increased research attention. Notably, various studies have examined diverse aspects of the subject, including: (1) how students and teachers perceive and understand these issues [
10,
14]; (2) the representation and treatment of these concepts in textbooks [
39]; and (3) the development of teaching methodologies and educational strategies [
17].
From a Social Sciences standpoint, existing research on these topics has largely focused on the perspectives, beliefs, and experiences of students and pre-service teachers. Flood risk education is often overlooked in teaching practices, despite its significant implications for vulnerable communities. There is limited information on how educators currently address this issue in classrooms, as informed by their firsthand experiences. This gap in knowledge underscores the importance of the present study, which aims to explore the ways in which flood hazards are taught and understood in primary education.
Previous research has revealed concerning deficiencies in teachers’ awareness of natural risks. Morote and Souto [
20] found that primary education teachers possess minimal prior knowledge of flood hazards and have a limited understanding of how vulnerability factors contribute to disaster mitigation. Their findings also indicate that only 12.1% of educators received formal training on natural disasters during their years of schooling. This lack of preparedness may hinder the effectiveness of flood risk education, reducing the students’ ability to comprehend and respond to extreme weather events.
Despite floods being common, there is little research on how the primary education curriculum addresses local flood events, which would give a better grounding for their study. By addressing these gaps, this article seeks to reinforce the role of education in disaster preparedness and resilience-building. Enhancing teacher training and integrating flood risk education into curricula could significantly improve the way that students perceive and respond to natural hazards, ultimately fostering a culture of safety and prevention.
Flood risk education must be grounded in established pedagogical principles to ensure its effectiveness in shaping students’ understanding and preparedness. Inquiry-based learning offers a framework for engaging students in the investigative process, allowing them to explore flood hazards through critical questioning and data analysis. Likewise, experiential learning provides opportunities for direct engagement, enabling students to grasp flood risk dynamics through simulations and hands-on activities.
Collaborative learning plays a crucial role in this intervention, as peer interactions foster knowledge exchange and encourage reflective thinking. By integrating these theories, this study moves beyond traditional instructional approaches, ensuring that students actively engage in disaster risk reduction education. Previous studies underscore the value of such methodologies in disaster education, demonstrating how interactive, student-centered approaches improve hazard awareness and response capabilities [
18,
19]. This theoretical grounding strengthens the intervention’s pedagogical integrity and aligns it with best practices in environmental education.
This study aims to present a didactic experience that was carried out during the 2024–2025 academic year at a primary school in the city of Alicante (Valencian Community, Spain with sixth-grade students (11–12 years old; subject: “Knowledge of the Natural, Social, and Cultural Environment”). The objective is to increase knowledge of flood causes and safety measures, with a particular focus on the DANA event of 29 October 2024 (Spain). Through practical and collaborative activities, this initiative seeks to raise awareness about the importance of risk prevention and management. In doing so, the goal is to foster a more resilient society that is capable of addressing both the current and future challenges posed by climate change.
The initial hypothesis posits that through practical and collaborative tasks that are focused on extreme weather phenomena, such as torrential rains, students who participate in the project will be able to identify more flood prevention strategies afterward than before participation. The objective of the research was to enhance students’ preparedness, not only for the DANA event but also for any similar situations, addressing the impacts of climate change with the goal of fostering a more resilient society.
2. Sources and Methodology
To implement this didactic experience, the current national curriculum for primary education (6–12 years old) was thoroughly reviewed to identify the foundational knowledge directly related to natural hazards, as well as the specific competencies to be addressed. In addition, a brief explanation of the origin and consequences of the torrential rains on 29 October 2024 is provided herein. This will help readers to understand the context of the educational experience.
2.1. Flood Risk in the School Curriculum for Primary Education
For primary education, an analysis was conducted on Royal Decree 157/2022, dated 1 March, focusing on the subject “Knowledge of the Natural, Social, and Cultural Environment”, particularly the “Societies and Territories” section. This section of the decree addresses contemporary challenges and situations at both local and global levels, with a strong emphasis on sustainability. This is also the section where the geography content is incorporated into primary education. Furthermore, the decree underscores the importance of:
Students understanding the interactions between human activities and the natural and social environments, as well as the environmental impacts they produce, to encourage them to adopt sustainable lifestyles. Additionally, it promotes student participation in activities that emphasize care and contribute meaningfully to advancing the Sustainable Development Goals in a conscious and contextualized manner.
The content directly related to natural hazards can be found in Point 1 (“Current global challenges”):
- -
“The future of Earth and the universe. Physical phenomena related to Earth and the universe and their impact on daily life and the environment. Space exploration and sky observation; light pollution.”
- -
“Climate and the planet. Introduction to atmospheric dynamics and the major climatic zones of the world. Key ecosystems and their landscapes.”
- -
“The natural environment. The geographical diversity of Spain and Europe. Graphical, visual, and cartographic representation using both analog and digital tools, employing Geographic Information Technologies (GIT).”
Also in Point 4 (“Ecosocial awareness”), the following content appears:
- -
“Climate change from local to global: causes and consequences. Mitigation and adaptation measures.”
- -
“Ecosocial responsibility. The interdependence, ecodependence, and interrelation between individuals, societies, and the natural environment.”
- -
“Sustainable development. Human activities impacting spaces and resource exploitation. Economic activities and wealth distribution: social and regional inequalities in the world and in Spain. The Sustainable Development Goals.”
- -
“Urban Agenda. Sustainable urban development. The city as a space for coexistence.”
2.2. Research Design
This study was designed as an action-research project, with the teacher as a participating observer. The methodology employed herein encompasses an analysis of climatic data, the interpretation of cartographic materials, and the examination of emergency scenarios, allowing students to cultivate both critical and reflective skills. Moreover, the implications of these events are examined at both local and global scales, promoting an interdisciplinary approach that connects geography with other fields of knowledge.
2.3. Context of the School and the Participants
The school, a public institution in which the didactic experience took place, is situated in the city of Alicante (Valencian Community, Spain), specifically in the renowned neighborhood of Campoamor, which has a population of 12,805 inhabitants. This area is characterized by its cultural diversity and marked socio-economic disparities, where middle-class families live alongside others experiencing severe social vulnerability [
41]. The neighborhood has a strong working-class tradition, with many families relying on employment in the service and construction industries. Additionally, various social initiatives have been implemented to support the integration of at-risk groups [
42].
The school (with a total of 120 students) is organized with a single class per educational level, except for the sixth grade of primary education, which comprises two classes. The school environment is defined by strong collaboration among the teachers, promoting an atmosphere of effective teamwork and creating a highly enriching learning setting. The relationship between teachers and students is notably close, allowing for personalized attention and thorough monitoring of each student’s academic and personal development.
The students represent a diverse array of nationalities, with Spanish nationals forming a minority. However, other students from different countries still stand out, such as those from North Africa, South America, and Eastern Europe, among others. This cultural diversity enhances classroom dynamics by encouraging the exchange of perspectives and fostering inclusion through collaborative learning. Specifically, in the sixth-grade primary education class in which this didactic experience was conducted, there were 25 students (16.0% Spaniards; n = 4) aged between 11 and 12 years.
A key aspect of implementing this didactic experience in this particular context was the necessity of adapting methodologies to address the diversity found within the classroom. This included accommodating a student with a behavioral disorder, another with hyperactivity, and a girl with dyslexia. The academic heterogeneity, varied prior experiences, and differing social skills of the students demanded the use of strategies that promoted cooperative learning and active methodologies, such a project-based learning (PBL), cooperative learning (CL), and problem-based learning (PBL).
From a developmental standpoint, students at this stage undergo notable changes. Cognitively, they demonstrate an enhanced capacity to adopt different perspectives and refine critical thinking strategies, enabling them to engage in debates and confidently defend their ideas. Socioemotionally, they exhibit a strong interest in recreational activities, which fosters cooperation. In terms of motor skills, sixth-grade students show improved coordination; however, regulation remains a challenge, highlighting the need for approaches that encourage collaboration and support emotional management.
In addition, the study was conducted in accordance with the guidelines of the Helsinki Declaration (World Medical Association Declaration), ensuring a strong ethical and philosophical commitment, as well as an unwavering respect for human dignity, privacy, physical and moral integrity, and the protection of personal data throughout the research process. Privacy regulations were strictly followed, in compliance with the personal data protection code (Organic Law 3/2018), as well as the principles of anonymity and informed consent.
2.4. Data Collection and Analysis
The data collection and analysis of this didactic experience was conducted through direct and planned observation, ensuring that students did not feel pressured during the process. To systematically monitor progress, tracking sheets were employed, integrating scales, targets, rubrics, and checklists.
- -
Self-assessment targets: these targets are graphical tools with concentric circles, each representing a different competency or criterion (
Figure 1). This approach fosters self-reflection, encourages self-regulation, and empowers students as active participants in their learning. The self-assessment target accounted for 30% of each student’s overall grade for the learning situation (LS), providing insight into aspects such as organization, teamwork, and active listening.
- -
Confrontation checklist: the confrontation checklist was implemented, representing another 30% of the final grade (
Table 1). This checklist facilitated a structured assessment of student engagement and interaction throughout the learning process.
- -
Evaluation rubric for murals: finally, in the eighth session, students completed a culminating task—creating a mural (
Table 2). Their work was assessed using an evaluation rubric, which constituted 40% of the overall grade for the LS. This rubric ensured a comprehensive evaluation of creativity, accuracy, and content integration in their final project. This involves using a scale to identify the strengths and weaknesses of the work completed, with items related to content, organization, oral expression, and the use of visual resources, as outlined in
Table 2.
This multi-layered assessment strategy allowed for a dynamic and inclusive evaluation process, ensuring students’ active participation while maintaining a balanced and fair grading system.
Table 1.
Example of the “Confrontation checklist” given to students.
Table 1.
Example of the “Confrontation checklist” given to students.
Aspects | Rating (1 to 5) | Suggestions |
---|
Clarity of the message | | |
Creativity and originality | | |
Design and visual presentation | | |
Structure of the presentation | | |
Use of time (5 min) | | |
Teamwork | | |
Ability to capture attention | | |
Table 2.
Rubric for the mural.
Table 2.
Rubric for the mural.
Criterion | Excellent | Good | Need Improvement | Insufficient |
---|
Content | Clearly and fully explains the DANA. Causes, consequences, and measures are highlighted. | Explains the DANA with adequate information, but some details are missing. | The information is incomplete or unclear. | The concepts are not well explained or contain major errors. |
Organization | The presentation has a clear and organized structure. | The presentation is organized, but there are some interruptions. | The presentation is disorganized or poorly structured. | The presentation does not follow a logical structure. |
Oral Expression | Speaks with confidence, proper vocalization, and good use of tone. | Speaks with some confidence, but there are vocalization issues. | The speaker appears insecure or has difficulty expressing themselves. | The speaker is not easy to understand. |
Use of Visual Resources | The mural is attractive, well-organized, and enhances understanding. | The mural is well-structured but could be clearer. | The mural contains disorganized or illegible information. | The mural does not help to understand any content of the presentation. |
3. Unveiling the Causes of the 2024 Valencia DANA and Lessons in Resilience
In the current climatic context, two key factors explain the magnitude of the torrential rain episode that occurred in Valencia at the end of October 2024. First, increased atmospheric condensation processes mobilized more energy, leading to greater precipitation intensity. A primary causal factor behind this phenomenon is the warming of the Mediterranean Sea basin, which continues to set record-high summer temperatures, particularly since the early 21st century. At the end of October 2024, the sea surface temperature (SST) of the Balearic Sea, off the coast of the Valencian Community, was 23 °C, 1.5 °C above the average for the 1982–2011 period [
43].
The report on the meteorological conditions associated with the floods in the province of Valencia on Tuesday, 29 October 2024, published by the Center for Mediterranean Environmental Studies, highlights five key factors that contributed to the torrential rainfall recorded in the “Hoya de Buñol” area: (1) the intensity and duration of the DANA; (2) elevated Mediterranean Sea temperatures, which enhanced evaporation and increased the moisture content in the air mass over the western basin; (3) a significant inland moisture influx along the Valencian coast, driven by an easterly wind regime; (4) the localized nature of the rainfall, resulting from the alignment of convective nuclei moving “in single file” from southeast to northwest across the province; and (5) the influence of climate change, which likely intensified precipitation due to rising Mediterranean Sea temperatures, leading to increased atmospheric humidity [
44,
45].
The increase in precipitable water due to rising sea surface temperatures was previously highlighted by Tamayo and Núñez [
46] in their study of the torrential rainfall event that affected the Segura River basin (Vega Baja region, Alicante, Spain) in September 2019. These authors indicate that the mobilization of water vapor in condensation processes under highly unstable weather conditions has been increasing in recent decades.
Since 1980, the western Mediterranean Sea has warmed by 1.5 °C, a rate twice that of atmospheric warming in the same region (0.7 °C). The Mediterranean is increasingly functioning as a reservoir of heat and potential atmospheric energy, significantly influencing the intensity of rainfall during recent DANA episodes. In just one to two hours, accumulated precipitation can exceed 200–300 L per square meter, a volume that no region can withstand (
Figure 2). During the DANA event in Valencia, the Poio ravine carried water volumes surpassing 2200 cubic meters per second—five times the average flow of the Ebro River at its mouth. On 29 October, an official maximum precipitation record was set within 24 h, reaching 771 L per square meter in Turís (
Figure 3). This value is comparable to the record observed in Oliva (Valencia) in November 1987 (817 mm).
The 2024 DANA event was driven by a combination of atmospheric instability and warm Mediterranean waters, which enhanced storm formation. The continuous storm activity, often referred to as a “storm train”, led to excessive rainfall accumulation, causing rivers to overflow rapidly and overwhelming drainage systems. These impacts were further aggravated by urban expansion in flood-prone areas and inadequate infrastructure to cope with such extreme weather events. This meteorological event triggered flash flooding and widespread damage in municipalities such as “l’Horta Sud” (downstream of the Poio ravine;
Figure 4) and “La Ribera Baja” (downstream of the Magre river). These are among the most flood-prone areas in the Valencian Community, as identified by PATRICOVA in the ICV’s cartographic viewer.
The floods had a major impact on daily life, affecting more than 845,000 residents and causing severe damage in 65 municipalities. Homes, businesses, schools, and key infrastructure—including roads, power grids, and water supplies—suffered widespread destruction (
Figure 5). The disaster claimed 227 lives, and many families were displaced, leading to urgent requests for disaster relief at both national and European levels. At first, it was the local population and neighboring residents in the city of Valencia who assisted in the rescue and cleaning efforts. Later on, emergency response teams, including military units, were deployed for rescue and recovery efforts.
The economic consequences were severe, with over 64,000 businesses and thousands of workers affected, disrupting productivity and prompting demands for government aid. The
Generalitat Valenciana has estimated the damage at EUR 17.8 billion in a preliminary assessment conducted for the preparation of a Reconstruction Plan for the affected area [
50]. More than 11,000 homes and 141,000 vehicles were affected. Meanwhile, CaixaBank has indicated that the impact of the event on the national GDP for 2024 has led to a decrease of 0.1 to 0.2 percentage points [
51].
Figure 5.
Image of how a school looked after the floods (Massanasa, Valencia). Source: Rtve [
52].
Figure 5.
Image of how a school looked after the floods (Massanasa, Valencia). Source: Rtve [
52].
5. Discussion and Conclusions
The 2024 Valencia DANA event has underscored the urgent need to prioritize education and training on flood risk. Strengthening the education of both students and teachers, while promoting practical activities to transform vulnerability into resilience, is crucial [
56]. This research aims to address this need.
The initial hypothesis posits that through practical and collaborative tasks focused on extreme weather phenomena, such as torrential rains, “students who participate in the project will be able to identify more flood prevention strategies afterward than before”. These hypotheses appear valid in this context, as this study aimed to enhance students’ preparedness, not only for the 2024 DANA event but also for similar situations, addressing the impacts of climate change with the goal of fostering a more resilient society [
27,
32,
36]. Moreover, the study’s findings demonstrate that, in response to rainfall events in the city and proposed solutions to other natural risks, students’ reflections, actions, and academic performance have notably improved.
Teaching about climate change and flooding is crucial, as it connects learning with real-world issues that profoundly affect humanity. These phenomena, primarily driven by human activities, disrupt ecosystems, economies, and communities, making them into pressing global challenges. Exploring these topics fosters interdisciplinary understanding by integrating scientific knowledge, ethical considerations, and practical solutions. Moreover, the research presented here demonstrates significant potential, transcending abstract theories and incorporating both local and global experiences. This approach enhances awareness and motivates action, as suggested by Ballesteros et al. [
57].
Teaching about these topics empowers individuals to reduce their impacts, advance sustainability, and strengthen resilience against future crises by uniquely blending theoretical knowledge with social engagement [
11].
The 2024 DANA event in Valencia provided an opportunity to improve students’ understanding of extreme weather and disaster preparedness. This educational initiative aimed to enhance flood risk awareness and strengthen school preparedness through interactive strategies. Aligning with Velásquez & Alcántara [
32], the study assessed students’ hazard awareness, confidence in school preparedness, and communication effectiveness. Students participated in simulations and discussions, revealing varied awareness levels—some felt confident, while others doubted their school’s preparedness. Also, the current communication strategies showed not only strengths but also areas needing improvement. Ultimately, the initiative underscored the need for proactive, student-centered disaster education, reinforcing the importance of continuous improvements in disaster risk reduction to empower students to act effectively in crisis situations.
Torrential rains are natural phenomena that affect many communities, emphasizing the importance of understanding their causes, consequences, and preventive measures to minimize risks and safeguard lives. It is equally critical to address human actions that often exacerbate these risks. Teaching this topic in schools nurtures a culture of prevention and preparedness [
14].
Through such education programs, students learn to identify the warning signs, respond effectively during emergencies, and actively contribute to mitigation efforts by adopting responsible behavior, such as preventing drainage system pollution and protecting river courses. Additionally, these lessons enhance the students’ critical thinking skills and social awareness, equipping them to confront environmental challenges. Ultimately, developing informed and responsible young people prepares them to thrive in an ever-changing world [
20].
In response to the challenges posed by climate change and flooding in the study area, the following question emerges: How can this issue be effectively addressed from an educational perspective? According to Olcina et al. [
15], education is a critical strategy for reducing social vulnerability to natural hazards, thereby fostering greater socio-territorial resilience.
Floods that have affected numerous countries over recent decades, along with their consequences, have prompted a shift toward a new paradigm: flood risk management through public awareness and societal participation. This approach underscores the pivotal role of society in mitigating human and material losses [
57].
Williams et al. [
31], employing a participatory, action-based methodology with children aged 7–9 years, developed a creative and inclusive educational resource on floods to enhance learning. Their study demonstrates that young children are capable of learning about floods and preparing for them and that intergenerational learning can take place, with the messages that are taught in schools being transferred to their families. However, thematic analysis reveals certain limitations, including factors such as family dynamics (the empowerment of children) and parental disconnection or a lack of awareness of risks.
When it comes to educational experiences, several publications highlight activities designed to teach flood risks, both within school classrooms and through outdoor field trips. In the classroom setting, recent studies have emphasized teaching these phenomena through games and simulations. A notable example is the United Nations (UN) game, Stop Disasters [
19], which not only provides students with meaningful learning experiences but also enhances their motivation. This finding is further supported by Abied et al. [
18], who demonstrated that using a game not only deepens students’ understanding of this topic but also significantly boosts their enthusiasm for learning.
In relation to studying the environment, the everyday consequences of floods and the use of digital tools for classroom activities have been explored by Guo et al. [
57]. They introduced a teaching approach using conceptual graphs to organize and visually represent knowledge about floods. Similarly, Olcina et al. [
15] advocate teaching about floods using web viewers that highlight flood-prone areas in students’ local territories.
Mendoza [
58], in his research on flood risk prevention programs in high schools in José Cardel (State of Veracruz, Mexico), proposed various educational initiatives for risk education. These include screening documentaries, designing informational posters, and creating social media forums for students. Moreover, Zaragoza and Morote [
14] suggest incorporating historical flood education by utilizing the local toponymy associated with these phenomena, alongside oral histories and the accounts of individuals who have experienced these disasters.
Students in our case study improved their understanding of flood causes and safety measures, indicating that the didactic approach is a promising tool for risk education in primary schools. The use of real images and analyses of DANA situations in Valencia further captured their attention by connecting classroom learning to real-world scenarios. Reflection exercises like “Now I know, before I knew” encouraged self-awareness and highlighted the importance of understanding meteorological phenomena, enhancing both academic and personal skills.
The educational context, shaped by economic and social inequalities, underscored the school’s role as a space of equity and opportunity. Projects promoting inclusion, interculturality, and equal opportunities ensured meaningful learning experiences tailored to diverse student needs. However, challenges such as initial difficulties with digital tools and time management required teacher adaptation and peer support to overcome.
As a limitation of this study, it is important to highlight that the methodology assumes that observing students and collecting a few quotes is enough to validate learning. For example, there is no mention of efforts made to reduce bias, such as using an independent evaluator or triangulating data (e.g., combining observation with a short quiz or student self-assessment). This will be considered as a future research challenge.
Another limitation is the small sample size, consisting of a single class, which restricts the generalizability of findings. Additionally, the absence of a control group or baseline data prevents a comparative assessment of student progress. The study is further limited by its short-term scope, as learning outcomes were evaluated within a brief timeframe. Moreover, the intervention was conducted in a specific context, making external applicability uncertain. Lastly, researcher involvement in teaching introduces potential bias. Future studies should address these constraints by incorporating larger sample sizes, control groups, and long-term assessments to enhance reliability.
This experience, designed shortly after the Valencia floods, emphasized the importance of integrating local and regional contexts, such as Alicante’s history of flood risks (e.g., 1982 and 1997). The need to compare current and past environmental conditions helped students to understand the unprecedented nature of contemporary climate change, linking it directly to human activities. Students also learned that humanity has the capacity to mitigate impacts through responsible actions such as reducing pollution and adopting sustainable practices.
We are confronting one of the greatest challenges of this century, marked by socio-economic, political, and environmental complexity. Educating future generations requires precise scientific knowledge and applied skills, enabling students to reflect on and adopt effective strategies to minimize climate change impacts.