Analyzing Literacy on Weather-Related Hazards and Risks among Students of an Eastern Mediterranean Region

Abstract

The present study analyzes students’ weather-related hazard and risk literacy in Greece, a climate change hotspot region in the Eastern Mediterranean. In this context, we examine the students’ level in two core literacy variables, namely knowledge and competency. In addition, we explore how knowledge, attitudes, and socio-demographic variables influence students’ competencies related to weather and climate risk assessment and adaptability. A questionnaire-based survey was conducted on 474 students aged 12–16. The regression results showed that knowledge significantly affects the level of competency. Self-belief and confidence in science were the most influential among the attitudinal variables. We conclude by discussing the educational and behavioral issues highlighted as essential to address them with targeted policies and measures in formal education complemented by non-formal educational activities. We also propose future education requirements like further integration of real-world applications and advanced technologies to enhance students’ literacy in weather-related hazards and risks.

1. Introduction

Over the past two decades, severe weather-related phenomena have had a devastating impact globally, and future predictions are dire [1]. In the Eastern Mediterranean, a region particularly vulnerable to climate change [2], extreme rainfall, floods, droughts, heatwaves, and wildfires have profound societal implications. Papagiannaki et al. [3], who presented an analysis of the temporal and spatial distribution of high-impact weather events in Greece, found that half of the recorded weather-related phenomena were flash floods, which in turn, at a percentage of 81%, caused medium- to high-severity impacts in the study region. The urgency to enhance awareness, risk assessment skills, and adaptability is paramount. Scientific literacy is pivotal in bridging knowledge gaps and empowering individuals to navigate climate challenges. The United Nations Educational, Scientific, and Cultural Organization (UNESCO) defines literacy as the ‘ability to identify, understand, interpret, create, communicate, compute, and use printed and written materials associated with varying contexts’. Strengthening scientific literacy in schools can equip students with these essential skills. Studies have shown that school-based disaster education is crucial in reducing the damage caused by natural disasters [4].

Various factors have been studied regarding their contribution or effect on scientific literacy, with some of the most important being knowledge about the scientific subject [5], specific analytical and interpretation skills, personal interest in the topic [6], and educational [7] and family environment [8]. At the same time, personal experiences, consisting of experiential knowledge and social needs, seem to co-shape the literacy level [9]. Furthermore, there is evidence that attitudinal factors such as personal interest in science, science self-efficacy, and instrumental motivation to learn science mediate the effect of traditional educational practices on scientific literacy [10].

As can be seen from the literature, developing scientific literacy is multifactorial, which formal education should seriously consider. As far as natural disasters are concerned, they are an interdisciplinary research subject, as they represent a common field of interest for both the natural and social sciences. However, schools’ curricula have not yet adopted such a methodological concept [11]. Furthermore, a recent survey on the literacy of teachers in Turkey showed that, concerning natural disasters, it was at a high level but at a moderate level in terms of the behavioral dimension, which is considered a component of overall literacy [11]. These findings indicate that the broader school context is often outdated regarding approaches to ensuring adequate literacy with behavioral implications.

Scientific literacy is an increasingly concerning issue to the research and educational community. The number of publications focusing specifically on the climate and climate change literacy has increased exponentially in the last two decades, along with the worldwide increase in climate change events [12]. Some studies have focused on environmental literacy [13], natural disaster literacy [14], and even ocean literacy [15]. A few studies examine citizens’ weather literacy [16] or focus on literacy aspects of particular climate or weather-related hazards, such as flooding [17]. However, we noticed a literature gap in the analysis of students’ literacy in weather-related hazards and risks, especially in the region of the particularly burdened and vulnerable Eastern Mediterranean.

In light of the existing literature, this study aims to fill this gap, assessing the literacy of students in Greek schools on the topics of weather-related hazards and risks, testing the knowledge and competencies of students and paying particular attention to considering factors related to the attitudes, beliefs, and the school and family environment and socio-demographic characteristics. We also discuss policy implications, such as how and what changes are necessary for traditional formal education to address the critical topics of climate change, weather-related hazards, and risks.

2. Materials and Methods

2.1. Research Framework

Our research framework for analyzing weather-related hazards and risk literacy among Greek students (Figure 1) is based on PISA’s (Programme for International Student Assessment by OEDC) methodological and conceptual framework. The PISA student questionnaire assesses literacy in science through multiple interrelated elements, including the student’s background, beliefs, attitudes, feelings, and behaviors [18]. Teaching practices and learning opportunities are mainly addressed to the educational system and are not examined in the context of the present work but only indirectly. Therefore, our research framework conceptualizes the hypothesis that knowledge may positively affect students’ competencies, and that attitudes and socio-demographic features influence these core literacy variables.

In the present study, we consider literate the student who understands the basic principles of all aspects of the Earth system that govern meteorological phenomena, knows how to gather and interpret information about weather phenomena, recognizes their hazardous nature and associated risk, and makes scientifically informed and responsible decisions on protection against the weather-related natural hazards. Attitudinal factors and socio-demographic characteristics complete the framework for a deeper understanding of the factors influencing student literacy.

We should note that due to limitations in accessing reliable information about each student’s prior learning level in meteorology and weather-related hazards, the study focuses on assessing students’ current knowledge and competencies without a baseline comparison. In Greece, education on weather phenomena and climate is primarily included in Geosciences school textbooks, with minimal content in Physics textbooks. Furthermore, the focus is largely on laws and exercises rather than on the interpretation of natural phenomena. The meteorology content in these textbooks is generally sparse and lacks comprehensive scientific figures. Finally, literacy concerns the knowledge and attitudes resulting from formal education (school) as well as informal education (extracurricular programs, media, etc.). As such, our study aims to evaluate students’ knowledge and competencies within the broader existing educational framework. While students may not have been extensively exposed to certain meteorological concepts, this assessment provides valuable insights into their current understanding and highlights areas where educational improvements could be most beneficial.

2.2. Questionnaire-Based Survey

We constructed an online questionnaire to examine the students’ literacy in weather-related hazards and risks, targeting secondary school students. The survey was carried out with the permission of the Ministry of Education. The questionnaire was structured around the following three central themes:

• the student’s attitude towards science and applications of meteorology, with a focus on interest in relevant issues and prospects, confidence in the scientific value and personal abilities,
• the student’s knowledge, with a focus on content and procedural knowledge, and
• the student’s competencies, specifically their ability to use knowledge to assess and adapt to weather-related hazards and risks.

Socio-demographic characteristics were also recorded. The details and the questionnaire, translated into English, are available as Supplementary Materials.

Sample Profile

The survey involved 474 students aged 12–16 years old from more than 30 public schools. Schools were selected based on geographical criteria, namely the degree of urbanization and geographical characteristics, which may be associated with student performance. Given Greece’s diverse geographical landscape, including lowland areas, islands, and mountainous regions, we included geographical location as a variable in our analysis to explore its potential influence on students’ attitudes and competencies about weather-related risks. Regarding urbanization, 38.6% of the participating students live in urban areas, 39.2% in semi-urban areas, and 22.2% in rural areas. Also, 59.1% of students live in lowland areas, 31.0% in islands, and 9.9% in mountainous areas. Among the genders, females are overrepresented, constituting 59.5% of the participating students. Regarding class, 39.0% of students were in the first year of middle school, 25.1% in the second year, 21.9% in the third year, and 13.9% in the first year of high school when the survey was conducted.

2.3. Measures

Survey questionnaire items were closed-ended; most were treated with either a 5-point Likert rating scale or a dichotomous scale (true/false).

Table 1. Coding and statistics of socio-demographic variables (mean (M), standard deviation (SD), min–max).

Socio-Demographic Variable	Coding	M	SD	Min	Max
Gender	1 = female, 2 = male	1.41	0.49	1	2
Class	1 = middle -1st year, 2 = middle -2nd year, 3 = middle -3rd year, 4 = high -1st year	2.11	1.08	1	4
Urbanization	1 = rural, 2 = semi-urban, 3 = urban	2.16	0.76	1	3
Mother education	1 = basic, 2 = highschool, 3 = technical, 4 = bachelor, 5 = master, 6 = PhD	3.19	1.36	1	6
Father education		3.02	1.34	1	6

shows the coded variables that emerged from the socio-demographic characteristics and their statistical description. Apart from the categorical geographical variable (three categories: lowland, mountainous, island area), the rest are ordinal variables.

2.3.1. Attitude Variables

Multiple items were combined to measure attitude variables to ensure reliable and valid methodological treatment. Principal factor analysis (PFA) was applied to validate each multi-item variable, and Cronbach’s alpha (α) was applied to examine the scale’s internal reliability. Only items with factor loadings of above 0.50 were accepted in PFA to ensure a good fit with the factor [19]. Each attitude variable was then produced by calculating the mean rating of all the accepted items [19]. Scale reliability was considered excellent for α above 0.70 or 0.60 if only a few items (less than 4) were involved [19,20].

Five attitude variables were developed, namely (a) personal motivation to engage in the science of meteorology and weather-related hazards, (b) instrumental motivation towards a professional future based on the student’s own perspective, (c) instrumental motivation based on the perspective of others, (d) confidence in science value, and (e) self-belief, as derived by the student’s self-concept and self-efficacy in science and applications.

Regarding personal motivation, students were asked to rate the following: (1) their interest in weather-related phenomena and hazards, (2) their enjoyment of observation activities, and (3) the skills they feel they develop through observing weather phenomena. Regarding instrumental motivation related to the student perspective, students were asked to what extent they agreed with the following: (1) would consider a career prospect in the fields examined, (2) felt they could succeed professionally, and (3) felt there was a good career prospect. Regarding instrumental motivation related to others’ perspective, students were asked to what extent they are encouraged, (1) by their parents and (2) by their teachers, to pursue a professional career in these fields. Regarding confidence in science, participants were asked the following: (1) how useful they consider scientific knowledge about weather-related hazards, and (2) the extent to which scientific research can help citizens protect themselves from those hazards. Finally, regarding self-belief, six questions were posed about the students’ understanding of meteorological concepts and hazards (self-content) and their ability to interpret the effects of weather-related phenomena (self-efficacy).

2.3.2. Knowledge and Competency Variables

Knowledge questions were about either content (13 questions) or procedural knowledge (10 questions). Content knowledge questions deepened on issues related to the occurrence of weather-related phenomena and the associated risks in Greece. It was requested, for example, to confirm the correctness of proposals such as that the spread of forest fires is favored by high humidity (false) or choose the correct explanation for the fact that temperature differences cause lateral and vertical air movements. Procedural knowledge questions included weather maps, and the students were invited to answer questions requiring familiarity.

Competency questions were focused either on assessing the risk of meteorological and weather-related phenomena (11 questions) or adapting to or reducing risk (9 questions). Assessment competency questions asked the student, for example, to evaluate the risk for eventually intense phenomena by assessing cloud photographs. Adaptability competency questions examined whether, for example, the student knows of good practices for protection from intense events such as storms, floods, or heatwaves.

The scores of the items were aggregated to generate the continuous variables of content knowledge, procedural knowledge, assessment competency, and adaptability competency.

2.3.3. Statistical Methods

Several statistical methods were employed to analyze the survey responses. Descriptive analysis and non-parametric tests were used to check for the distribution of the survey variables and the correlations between them. We used Spearman’s correlation to account for variables without normal distribution.

We then performed multiple regression analyses, applying the stepwise linear regression method, to investigate how student competency related to weather risk assessment and adaptability is affected by attitudes and knowledge. Therefore, we examined two models, one for assessment competency and one for adaptability competency. We also examined two additional models to test the effects of attitudes on knowledge variables. All regression analyses included socio-demographic and geographic characteristics as control variables. For the statistical analyses, all the continuous variables of attitude, knowledge, and competency were normalized to range between 0 and 1. The level of confidence in all statistical analyses was 95%.

3. Results

3.1. Descriptive and Correlation Analyses

Table 2. Statistics (mean (M), standard deviation (SD), min–max) of attitude variables. n = 474 for all items and variables.

Attitude Variable	Items	M	SD	Min	Max	Cronbach’s Alpha	Factor Loadings
Personal motivation		2.85	0.87	1	5	0.70
	interest	2.97	1.01	1	5		0.66
	enjoyment	2.66	1.17	1	5		0.67
	skills development	2.92	1.14				0.51
Student perspective		2.35	0.79	1	5	0.62
	career consideration	1.80	1.02	1	5		0.57
	professional success	2.33	1.09	1	5		0.59
	good career prospect	2.90	1.04	1	5		0.50
Others perspective		1.76	0.94	1	5	0.73
	parents	1.72	1.03	1	5		n/a
	teachers	1.80	1.09	1	5		n/a
Confidence in science		3.92	0.92	1	5	0.67
	useful	3.87	1.09	1	5		n/a
	helpful	3.97	1.03	1	5		n/a
Self-belief		2.68	0.75	1	5	0.81
	understanding of meteorological concepts	2.55	0.96	1	5		0.68
	understanding of associated risks	3.25	1.03	1	5		0.64
.	interpretation of extreme events increase	2.34	0.96	1	5		0.61
	identification of societal impacts	2.48	0.99	1	5		0.70
	explanation of GHG and heatwaves	2.76	1.16	1	5		0.63
	discussion of policies and measures	2.68	1.18	1	5		0.59

Note: Scale reliability (Cronbach’s alpha, α) and construction (item factor loadings) are provided if applicable (i.e., at least three items (Robinson, 2018)). n/a: not applicable.

presents the statistical description of attitude variables and the associated items, the scale reliability of variables, and item factor loadings where applicable (i.e., at least three items involved).

To compare performance between attitude, knowledge, and competency variables, distributions of the normalized (at 0–1 range) measures are shown in Figure 2. Among the variables of attitude, confidence in science has the highest performance, and personal motivation and self-belief have a moderate performance. In contrast, the student perspective and especially others’ perspective are rated much lower. Knowledge variables show relatively high performance. Content knowledge has the lowest variability, indicating that respondents have more consistent performance in questions on understanding weather-related hazards and associated risks in Greece. Both competency variables show relatively low variability; however, adaptability competency scores much higher than assessment competency.

Table 3. Correlations (Spearman’s rank coefficient, rho) between the examined variables.

	Class	Gender	Urbanization	Mother Education	Father Education	Personal Motivation	Student Perspective	Others Perspective	Confidence in Science	Self-Belief	Content Knowledge	Procedural Knowledge	Assessment Competency	Adaptability Competency
class	1.00
gender		1.00
urbanization	−0.14	0.11	1.00
mother education			0.19	1.00
father education			0.13	0.62	1.00
personal motivation						1.00
student perspective	−0.17					0.57	1.00
others perspective	−0.22			−0.09	−0.10	0.33	0.50	1.00
confidence in science		−0.09				0.57	0.38	0.11	1.00
self-belief				0.11	0.12	0.62	0.48	0.24	0.49	1.00
content knowledge	0.15		0.09	0.15		0.20		−0.10	0.24	0.19	1.00
procedural knowledge	0.13					0.29			0.24	0.26	0.25	1.00
assessment competency	0.16					0.21	0.11		0.20	0.27	0.24	0.31	1.00
adaptability competency				0.09		0.20			0.22	0.19	0.18	0.30	0.21	1.00

Note: Only statistically significant results are provided (p < 0.05). The coding of the rest of the variables is shown in Table 2.

shows the statistically significant correlations (Spearman’s rho, p < 0.05) between all the examined variables, indicating that demographic attributes such as gender and urbanization in the areas where students live are not generally associated with the level of attitude, knowledge, and competency variables.

The relationship between gender and confidence in science is the exception, showing females with higher confidence, although the statistically significant correlation is weak (rho = −0.09). Regarding the parents’ educational level, it was found to be related positively to others’ perspective (rho = 0.09–0.10), i.e., to the instrumental motivation through the encouragement by parents and teachers. It is also related to self-belief (rho = 0.11–0.12), which was found to be enhanced the more educated the parents were. None of the correlations are high enough to raise concerns for the subsequent regression analyses [21].

3.2. Multiple Regression Analyses

Table 4. Results of multiple regression analyses performed to assess the effects of knowledge, attitudes and socio-demographic variables on competency variables. Only predictors having significant coefficients (p < 0.05) are shown.

Variable	Assessment Competency			Variable	Adaptability Competency
	B	SE B	β		B	SE B	β
self-belief	0.17 ***	0.04	0.18	confidence in science	0.10 ***	0.03	0.15
content knowledge	0.14 **	0.05	0.13	content knowledge	0.08 *	0.04	0.09
procedural knowledge	0.16 ***	0.03	0.22	procedural knowledge	0.16 ***	0.03	0.26
class	0.02 **	0.01	0.12	gender	−0.03 *	0.01	−0.11
				geography (lowland vs island)	0.04 **	0.01	0.12
_cons	0.25 ***	0.04		_cons	0.51 ***	0.04
Fit statistics	F(4, 469) = 24.86 ***	Adj. R2 = 0.17	VIF = 1.10	Fit statistics	F(5, 468) = 20.25 ***	Adj. R2 = 0.17	VIF = 1.09

Note: β are standardized beta coefficients. Statistical significance, p-value, is symbolized as * p < 0.05, ** p < 0.01, *** p < 0.001.

provides the results of the multiple regression analyses performed to assess the effects of attitude, knowledge, and socio-demographic variables on competency variables. Furthermore,

Table 5. Results of multiple regression analyses performed to assess the effects of attitudes and socio-demographics on knowledge variables. Only predictors having significant coefficients (p < 0.05) are shown.

Variable	Content Knowledge			Variable	Procedural Knowledge
	B	SE B	β		B	SE B	β
others perspective	−0.08 *	0.03	−0.10 *	personal motivation	0.25 ***	0.07	0.21
confidence in science	0.18 ***	0.04	0.23 ***	others perspective	−0.17 ***	0.05	−0.16
self-belief	0.10 *	0.05	0.11 *	self-belief	0.23 **	0.07	0.17
class	0.02 **	0.01	0.14 **
urbanization	0.02 *	0.01	0.10 *
mother education	0.01 *	0.01	0.09 *
_cons	0.38 ***	0.04		_cons	0.50 ***	0.03
Fit statistics	F(6, 467) = 12.36 ***	Adj. R2 = 0.13	VIF = 1.20	Fit statistics	F(3, 470) = 19.88 ***	Adj. R2 = 0.11	VIF = 1.50

Note: β are standardized beta coefficients. Statistical significance, p-value, is symbolized as * p < 0.05, ** p < 0.01, *** p < 0.001.

presents the results of two additional regression models that test the effects of attitudes and socio-demographics on knowledge variables.

F values for the models are significant at the 0.1% level, indicating a very good data fit. The adjusted R square is 17% for the competency models and 11–13% for the knowledge models. To assess multicollinearity, we computed the variance inflation factor (VIF) scores below the accepted cut-off of 10 [22], ranging from 1.09 to 1.50.

Regression results are displayed graphically in Figure 3 and Figure 4 to help interpret and compare the effects on the dependent variables. According to the model results, knowledge significantly affects the level of competencies. Both assessment competency and adaptability competency were found to be positively affected by content knowledge (0.14, p < 0.01 and 0.08, p < 0.05, respectively) and especially by procedural knowledge (0.16, p < 0.001 and 0.16, p < 0.001, respectively). Among the variables of attitude, self-belief was found to have a significant positive effect on assessment competency (0.17, p < 0.001), and confidence in science was found to have a significant positive effect on adaptability competency (0.10, p < 0.001).

Personal and instrumental motivation (the student perspective and others’ perspective) were not found to have statistically significant effects on competency variables. However, they were found to have a statistically significant effect on knowledge performance. Of particular interest is that while personal motivation was found to have a positive effect on the level of procedural knowledge (0.25, p < 0.001), motivation given through others’ perspective (i.e., encouraged by parents and teachers) was found to have a negative effect on both content knowledge (−0.08, p < 0.05) and procedural knowledge (−0.17, p < 0.001). Content knowledge was also found to be positively and comparably strongly affected by confidence in science (0.18, p < 0.001), as well as by self-belief (0.10, p < 0.05), which also affected procedural knowledge (0.23, p < 0.01). It should be noted that self-belief was found to positively affect dependent variables in three of the four models, showing that it is a critical factor in student literacy.

In what concerns the socio-demographic variables, the class level has a positive but weak effect on assessment competency (0.02, p < 0.01) and an insignificant effect on adaptability competency, which was found to be slightly influenced by gender (−0.03, p < 0.05) and geographical features (0.04, p < 0.01). In particular, males are associated with lower adaptability competency, and lowland areas are associated with increased adaptability competency relative to the islands.

The effects of parents’ education were insignificant within the models, except for a positive but weak effect of mother’s education on content knowledge (0.01, p < 0.05). Similarly, urbanization was not found to affect competencies, while its positive effect on content knowledge was weak (0.02, p < 0.05).

4. Discussion

Results indicate, on average, low attitude variable ratings (except for confidence in science) compared to knowledge and competency scores, which are moderate to high. The students’ overall performance in the two core literacy variables, knowledge and competency, indicates that they possess a relatively good understanding and skills despite lacking engagement or self-confidence. Furthermore, results show that knowledge is a critical driver of competency. Confirming our hypothesis that knowledge variables positively affect competencies is crucial for the validity of our method and the robustness of our discussion.

The low ratings in personal and instrumental motivation suggest that students are currently not highly engaged, personally interested, or motivated by others towards meteorology and learning about weather-related phenomena, their hazardous nature, and the associated risks. This disconnect shows that the educational system in Greece imparts knowledge through structured curricula but fails to inspire or motivate students personally.

According to the self-determination theory [23], when people lack personal inspiration or intrinsic motivation, their engagement may suffer, leading to a disconnect between knowledge acquisition and self-belief. In support of this theory, the regression results suggest that attitudes may affect literacy levels. First, higher self-belief, i.e., confidence in their ability to comprehend and interpret weather-related hazards and risks, positively affects knowledge levels (content and procedural knowledge) and the ability to assess the risk of weather-related phenomena (assessment competency). Second, personal motivation activates the acquisition of procedural knowledge, which requires familiarity with more technical approaches, such as interpreting and comprehending weather and risk maps. Third, students with higher confidence in science better understand weather-related phenomena and the associated risks (content knowledge) and have a higher ability to adapt and take measures to reduce risk (adaptability competency).

Contrary to the previous findings [7,8,10], even the perspective adopted by third parties (parents, teachers) negatively affects students’ literacy, especially on the foundation of knowledge. We must highlight, however, that self-belief is related to the parents and the school environment and has a strong positive effect on most of the literacy variables. Previous literature has suggested that parents’ beliefs can shape students’ motivation, achievement, and career choices in STEM fields (science, technology, engineering, and mathematics) [24] and that the school environment can influence students’ self-efficacy and self-identity [25]. At the same time, our results show that self-belief, personal motivation, and personal perspectives also have positive and relatively strong correlations. The above findings suggest that the interest of parents and educators may be more critical in enhancing the children’s self-confidence, which in turn fosters students who are literate and keen to pursue knowledge. The findings also imply that students may perceive instrumental motivation as pressure to meet expectations rather than genuinely engaging in seeking knowledge on a subject. Relevant studies have noted such behavioral issues and discussed how acknowledging students’ intrinsic interests and providing autonomy can help create a positive learning experience [26].

According to the results, the sociodemographics do not significantly affect knowledge and competencies scores overall but mainly when the attitude parameters are considered. More specifically, gender does not influence educational outcomes. It is, however, related to confidence in science, which is higher for females, in line with previous studies on the subject [27]. In addition, living in more urban and lowland areas, as well as the mother’s higher educational level and the student’s higher class level, affect the knowledge and skills to a very small extent. In other words, attitudes emerge as more influential overall.

5. Conclusions

The findings of this study highlight the critical role that knowledge about weather-related phenomena, hazards, and risks plays in enhancing students’ competencies. Furthermore, despite the relatively low levels, attitudes have been shown to affect the core literacy variables, namely knowledge and competencies. The findings suggest that family and teachers fail to motivate the pursuit of knowledge and skills; however, they appear significant in reinforcing self-belief, which is one of the critical factors in boosting literacy levels. The high confidence in science among students shows that they recognize the importance and value of scientific knowledge. This recognition likely drives their performance in knowledge and competencies, even if their personal interest and motivation are low. Confidence in science can be fostered by family environments or educational practices that emphasize the critical role of science in addressing real-world problems, such as weather-related hazards.

These results suggest several implications for education policy. Educational programs should prioritize strategies that boost intrinsic motivation and self-belief among students. Enhancing literacy in meteorology requires integrating more engaging, real-world applications of meteorological concepts into the curriculum and providing professional development for teachers to foster student motivation and enthusiasm. To operationalize the integration of real-world applications in climate literacy, educators can leverage open-access meteorological data and free satellite resources to create engaging and inquiry-based learning experiences. These tools provide students with hands-on opportunities to study weather and climate phenomena and help educators develop their digital skills by ensuring that climate literacy education is relevant, practical, and effective. Additionally, incorporating Virtual Reality and Augmented Reality tools can enhance student engagement by providing immersive experiences that simulate real-world climate scenarios and weather events, making abstract concepts more tangible and accessible.

Increasing parental and community involvement through initiatives highlighting the importance of science education can also provide students with the external support needed to enhance their personal and instrumental motivation. Furthermore, non-formal and informal education, such as extracurricular activities and community programs, are essential and should be promoted by central education policies and adopted by school units. These initiatives can make learning more dynamic and relevant, helping to develop knowledgeable, highly motivated, and confident students ready to tackle weather-related challenges, thereby improving overall literacy in this critical field.

This study provides a unique and unexplored examination of students’ literacy in weather-related hazards and risks within the Eastern Mediterranean region. As such, it opens new avenues for future research. As some improvements in educational content related to meteorology and weather-related hazards are underway [28,29], there is an opportunity for future longitudinal studies to track and measure how these curricular changes influence students’ understanding and competencies over time.