| dc.description.abstract |
Ethiopia's rapid deforestation and climate variability threaten ecosystems and livelihoods,
especially in the ecologically vital Metekel Zone. Despite increasing forest loss and climate
instability, understanding their dynamics, causes, and mitigation from environmental and
educational perspectives remains limited. This study aimed to integrate spatiotemporal analyses
of deforestation and climate change with environmental sustainability education. It also sought
to propose action-oriented content and pedagogical strategies for the secondary school
geography curriculum in the Metekel Zone. A pragmatist mixed-methods design, integrating a
longitudinal biophysical assessment with cross-sectional and convergent embedded surveys were
employed to explore the educational facets. A multistage sampling technique combining
purposive, simple random, and quota sampling was used to identify survey sites and subjects.
Land use and land cover data were derived from Landsat imagery, climate data from the
National Meteorological Agency, and crop yields from the Central Statistical Agency. In
addition, both primary and secondary data were gathered through standardized tests, surveys,
key informant interviews (KIIs), focus group discussions (FGDs), curriculum content analysis,
and field and classroom observations. Land use land cover changes were assessed using Landsat
images of 1986, 2002 and 2019 using Random Forest and Support Vector Machine classifiers,
along with vegetation indices such as the normalized difference vegetation index (NDVI), soil-
adjusted vegetation index (SAVI), normalized difference water index (NDWI), and leaf area
index (LAI). Climate variability was analyzed using the Coefficient of Variation, Mann–Kendall
trend test, Standardized Precipitation Index, and ARDL model to assess rainfall, temperature,
and crop yield relationships. Educational data were analyzed with descriptive statistics, chi-
square tests, t-tests, correlations, and binary logistic regression to identify factors influncing
environmental knowledge, attitudes, and teachers’ implementation of Problem Based Learning
(PBL). Qualitative data from KII, FGDs, curriculum reviews, and observations were
thematically analyzed to contextualize and enrich the quantitative results. Findings revealed a
significant forest cover decline from 51.37% in 1986 to 17.20% in 2019, propelled by
agricultural expansion, resettlement, charcoal/fuelwood extraction, and weak institutional
enforcement. Climate analysis showed significant warming trends, with annual maximum and
minimum temperatures rising by 0.33 °C and 0.31 °C per decade, respectively, with a rainfall
decline of 5.32 mm per decade. Rising temperatures have severely affected temperature-sensitive
crops in Dangur and Bullen districts, whereas fluctuations in rainfall patterns have diminished
agricultural yields in Dibate and Wombera districts. Curriculum review indicated moderate
climate change coverage (17.8% of minimum learning competencies in upper secondary grades)
but negligible deforestation integration (3.85%), prioritizing cognitive domains (60.8%) over
affective (27.5%) and psychomotor (12.5%) outcomes. Students exhibited low environmental
knowledge (52.2%) and unfavorable attitudes (52.7%) toward environmental protection;
determinants included age (p = 0.007), gender (p = 0.003), residence (p = 0.003), parental
education (p = 0.018), family income (p = 0.002), access to environmental information (p =
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0.000), grade level (p = 0.000), and participation in environmental clubs (p = 0.010)
significantly influenced awareness and attitudes. In contrast, social pressure, limited contextual
learning, curriculum challenges, resource gaps, and restricted personal agency negatively
influenced awareness and engagement. Investigation of teachers’ practices showed that
geography teachers in Metekel Zone demonstrate moderately positive beliefs in the value of
problem based learning (M = 2.56, t = −3.884, p < .001), though beliefs in heuristic approaches
(M = 2.49, t = −4.341, p < .001) and contextualizing lessons to students’ real-life experiences
(M = 2.47, t = −4.590, p < .001) remain low. Only 24–29% of teachers applied inquiry-based,
real-world, and independent problem-solving strategies, while 58–61% expressed negative views
toward heuristic methods. Teachers’ beliefs strongly correlated with their classroom practices (r
= 0.726, p < 0.01). Binary logistic regression revealed that teachers’ adaptation of PBL (p =
.006), emotional intelligence (p = .003), teachers’ perception of students’ environmental identity
(p = .002), teacher’s perception of student motivation and engagement (p = .005), and teacher’s
content experience (p = .008), significantly enhanced PBL implementation, whereas large class
sizes (p = .038), reliance on traditional methods (p = .024), and time-intensive nature of PBL (p
= .044) constrained it. Despite teachers’ conceptual support, structural and pedagogical
barriers including traditional assessment systems, inadequate logistics, and extensive curriculum
content limit effective PBL adoption. This study integrates spatiotemporal environmental
evidence with curriculum and pedagogy to illuminate the profound effects of deforestation and
climate change on livelihoods and agricultural productivity in Ethiopia. It reveals critical gaps
in contextual, action-oriented learning while showing that incorporating real-world ecological
data significantly enhances student engagement. By connecting biophysical data with
curriculum-pedagogy gaps, this study underscores deforestation/climate impacts on livelihoods
and advocates embedding real-world data to boost engagement. It calls for collaborative
reforms among educators, curriculum developers, policymakers, and communities to advance
sustainable environmental education in Ethiopia. |
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