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Article

Analyzing Important Disaster Risk Factors for Enhanced Policy Responses in Perceived at-Most-Risk African Countries

by
Emmanuel Eze
1,2,3,* and
Alexander Siegmund
1,2
1
Institute of Geography & Heidelberg Center for the Environment (HCE), University of Heidelberg, Im Neuenheimer Feld 348, D-69120 Heidelberg, Germany
2
Research Group for Earth Observation (rgeo)—Department of Geography, UNESCO Chair on Observation and Education of World Heritage & Biosphere Reserve, Heidelberg University of Education, Czernyring 22/10-12, D-69115 Heidelberg, Germany
3
Geographical and Environmental Education Unit, Department of Social Science Education, University of Nigeria, Nsukka 410001, Nigeria
*
Author to whom correspondence should be addressed.
Environments 2024, 11(2), 27; https://doi.org/10.3390/environments11020027
Submission received: 17 November 2023 / Revised: 23 January 2024 / Accepted: 29 January 2024 / Published: 31 January 2024

Abstract

:
The foremost priority of the Sendai Framework for Disaster Risk Reduction (SFDRR) is the increased understanding of disaster risk and strengthening its management. Detailed insights into African disaster risk drivers and assessment of policies for Disaster Risk Reduction (DRR) are sparse, hence this study. Using the Index for Risk Management (INFORM) data for 2022, this study determines important disaster risk drivers in Africa using a random forest machine learning model. Violent conflicts, current and projected, emerge as the only hazard factor significantly predictive of disaster risk in Africa, from the analyzed data. Other factors are mostly the sub-components of lack of coping capacity. Furthermore, 25 policies of the 10 countries of very high disaster risk were analyzed to evaluate their inclusion of pre-identified disaster risk factors. The findings of this study depart from the viewpoint of giving natural hazards greater attention in African disaster risk literature. Moreover, identified disaster risk drivers in Africa coincide with the social dimension of disasters, and broader continental developmental and policy issues. As Africa grapples with the complex interplay of environmental, socioeconomic, and conflict-related factors shaping disaster risk, the imperative arises for the development and implementation of comprehensive policies aimed at poverty and vulnerability-reduction to foster resilience across the region.

1. Introduction

The integrity of sustainable development faces an inherent threat from disasters, often stemming from a convergence of hazards, vulnerability, and a lack of coping mechanisms. Vlachogiannis et al. [1] underscore the exacerbating impact of climate change on associated hazards and their consequences. Concurrently, Nicodemus and Dennis [2] emphasize that deficient coping capabilities and heightened vulnerabilities amplify the risks, losses, and damages caused by disasters, especially in developing economies. Similarly, Eze and Siegmund [3] specify that the literature lacks emphasis on specific components of vulnerability and lack of coping capacity, despite their significant contribution to fueling disaster risk. These circumstances pose a direct challenge to comprehensive frameworks, such as the United Nations Agenda 2030, the Sendai Framework for Disaster Risk Reduction (SFDRR), and the Agenda 2063 of the African Union, which ambitiously strive for human well-being, peace, and prosperity within the realms of environmental and economic sustainability.
Africa stands out among the most vulnerable and least resilient regions to disasters, as highlighted in prior research. For example, Manyena [4] emphasizes that factors like poverty, climate change, rapid urbanization, and structural transformation significantly exacerbate the impacts of natural hazards in this region. Additionally, Paul et al. [5] estimate that disasters have inflicted various losses on over half a billion people in Africa over the past five decades. The hindrances posed by disaster risks have notably hampered developmental progress in Africa, attributed to deficiencies in risk identification, knowledge management, and governance, as highlighted by The African Union [6].
Subsequent reports and studies, including those by Bhavnani et al. [7], and Tiepolo and Braccio [8], reaffirm these critical gaps in risk identification and assessment within the African context. These shortcomings significantly compromise the availability of essential information required for effective disaster risk reduction (DRR) and management, as noted by van Niekerk et al. [9], potentially obstructing the attainment of the SFDRR 2015–2030 goals if not adequately addressed.
This study resonates with the advocacy for paradigm shifts emphasized by Kimengsi and Mbih [10], advocating for a comprehensive understanding of underlying disaster risk factors. Such understanding is essential in facilitating effective risk identification, reduction, and resilience enhancement in sub-Saharan Africa. Addressing these risk factors is imperative to counteract the failure to mitigate the fundamental drivers of disaster risks, as highlighted by Keating et al. [11]. A recent study by Eze and Siegmund [12] presents a comprehensive analysis of disaster risk trends, hotspots, factors, and their interaction effects on disaster risks across Africa, utilizing a decade-long dataset.
Notably, the literature lacks sufficient evaluations of African disaster risk plans. Tiepolo and Braccio [8] undertook a policy assessment encompassing the development plans of 21 African nations, revealing the absence of localized characterization and widespread omission of risk reduction objectives within these plans. Additionally, earlier observations about Africa by van Niekerk [13] have reported the inadequacies of countries’ disaster risk governance in aligning with the goals outlined in the defunct Hyogo Framework for Action, indicating a lack of responsiveness in this domain.
This study is driven by the overarching question: How well do relevant policies and national action plans incorporate disaster risk drivers? The need for data-driven insights into underlying disaster risk factors becomes evident as Kimengsi and Mbih [10] suggest, addresses gaps and bolsters resilience against hazards, aligning with DRR objectives. Furthermore, the assessment of national policies like DRR policies, Nationally Determined Contributions (NDCs), and National Adaptation Programmes of Action (NAPAs) in the context of these disaster risk factors yields valuable insights into the effectiveness of crucial policies. The phrase ‘core policies’ is used to collectively refer to these three policies in the subsequent sections of the paper. As highlighted by Bello et al. [14], policy assessments extend beyond hazard evaluations; they serve to diminish vulnerability and prompt public engagement in DRR efforts.
Consequently, this study seeks to initiate an assessment of the responsiveness of core policies in addressing disaster risk drivers in Africa. Initially, we identify disaster risk drivers using the 2022 Index for Risk Management (INFORM) data to assess their inclusion levels within relevant core policies. Subsequently, a content analysis of core policies from countries rated as very high in the disaster risk index is performed. The countries selected were chosen for expediency in providing an initial overview rather than serving as a representative sample for the study.

2. Potential Contributions of This Study

The study holds potential contributions that can significantly impact DRR efforts in Africa. Firstly, it offers unique insight into the fundamental factors driving disaster risk in the continent, empowering policymakers with specific knowledge to refine and bolster existing DRR policies. Highlighting the pivotal role of vulnerability and the underrepresentation of certain hazards within core policies lays the groundwork for more focused and targeted policy interventions.
Secondly, this research broadens the conventional understanding of disaster risks in Africa. The findings shift the lens from solely natural hazards to encompassing human-induced hazards and social vulnerabilities. This holistic perspective prompts a more comprehensive approach to disaster risk assessment and mitigation, emphasizing the critical need to address social, economic, and governance-related factors to effectively manage disaster risks.
Moreover, the study emphasizes inclusive and adaptive policy frameworks, which resonate with international development goals like the SFDRR and the Sustainable Development Goals of Agenda 2030. By advocating for policies that encompass the multifaceted nature of disaster risks, the study aligns with global efforts towards sustainable development and resilience-building in vulnerable regions.
Furthermore, this research lays a foundation for future investigations. It sets the stage for detailed country-specific studies, encouraging deeper exploration of disaster risk drivers across different African regions. This approach promises to unveil more relatable insights into region-specific vulnerabilities, thereby enriching the understanding of disaster risk factors and offering tailored solutions for more effective DRR strategies.

3. Materials and Methods

3.1. Data

This study utilizes data from the 2022 INFORM disaster risk index and various policy documents. Downloaded in the XLS format, the INFORM dataset encompasses all variables detailed in Figure 1 and was sourced from https://drmkc.jrc.ec.europa.eu/inform-index/ (accessed on 15 December 2022). The INFORM dataset is curated by The Joint Research Center of the European Commission, serving as the primary scientific resource for multiple stakeholders, including the humanitarian and development sectors, donors, and technical partners.
This global open-source tool aims to offer an objective and transparent understanding of risks associated with humanitarian crises. A comprehensive report of the concepts, procedure and methodology involved in generating the INFORM dataset is contained in Marin-Ferrer et al. [15]. Also, Eze and Siegmund [12] systematically conceptualized all key components of the INFORM dataset, deeming the data reliable and consistent for decadal-level analyses of disaster risk drivers in Africa. Readers are to refer to these materials to obtain further clarity.
Our reliance on the INFORM dataset is reinforced by previous studies affirming its reliability. Egawa et al. [16] express confidence in the INFORM dataset as a robust representation of the disaster risk index. Additionally, Birkmann et al. [17] conducted analyses demonstrating a high level of inherent consistency among indicators, reflected in near-perfect reliability scores of 0.948 for Cronbach Alpha and 0.954 for Guttman Lambda.
Moreover, our study involved the analysis of core policies from ten African countries exhibiting a very high INFORM disaster risk index. These documents include DRR policies, Nationally Determined Contributions (NDC), and National Adaptation Programmes of Action for Climate Change (NAPA). Detailed information regarding these documents is presented in Table 1, with full references provided subsequently in Appendix Table A1. We deem these documents reliable and suitable for this study as they are published by national agencies of the respective countries following global frameworks.

3.2. Data Analyses

3.2.1. Variable Importance Analysis

Variable importance analysis was conducted using the randomForestExplainer package developed by Paluszynska et al. [18] in R version 4.2.1. This package employs a model that identifies and ranks the most significant variables in random forest (RF) analyses based on their predictive capability of the dependent variable. We consider the randomForestExplainer package an ancillary tool to retrieve further information from an RF analysis. An RF consists of ensembles of recursive partitioning tree models, introducing randomization to enhance predictive performance [19]. Its advantages include compatibility with diverse data types, flexibility with non-parametric distributions, and the ability to capture complex relationships without prior assumptions about functional forms, hence its increasing application in the social sciences. However, the limited interpretability of RF is acknowledged by Levi [20] who describes a “black box” challenge in explaining RF outcomes, suggesting that only ancillary tools can “white box” the RF results for relevant information. Hence we use Paluszynska’s [18] package to extract useful information on important variables on disaster risk index from INFORM data for 2022.
Our study incorporated all hazard, vulnerability, and lack of coping capacity factors from the INFORM data for Africa as independent variables, while the INFORM risk index served as the dependent variable (Figure 1). An RF regression model consisting of 500 trees was generated to determine the minimal depth distribution within the generated forest via the min_depth_distribution function. The model computed various importance measures, including the number of nodes, accuracy decrease (MSE increase), Gini decrease (node purity increase), number of trees, times_a_root, and p-value. Technical details regarding the RF model operations are available in Paluszynska [21] for a deeper understanding. The resulting important disaster risk drivers in Africa are presented in the Section 4.

3.2.2. Content Analyses of Core Policies

Content analysis was conducted on the documents listed in Table 1 to determine the extent of their inclusion of disaster risk-driving factors identified through the RF variable importance analyses within selected policies. Specifically, the analysis focused on ten countries characterized by very high disaster risk indexes according to the INFORM data. The selection of these countries for the present study does not aim at generalization to other African nations. Instead, they serve as unique case studies to explore the topic as a pioneer study.
The study employed a summative content analysis approach following the methodology outlined by [22]. This technique involves counting specific keywords or concepts in the selected documents to derive contextual insights. Prior to data analysis, keywords were selected and later refined based on the components corresponding to disaster risk variables, including hazards, vulnerability, and lack of coping capacity. These keywords, aligned with the INFORM Methodology [15], are outlined in Table 2, presenting the keywords used and their significance as positive indicators in the content analyses.
To ensure the reliability of the coding scheme, an inter-rater reliability test was conducted. An independent reviewer analyzed six randomly selected policy documents using our predefined keywords. The analysis demonstrated a substantial agreement of 90.73% in coding (Appendix Table A2), yielding an “almost perfect” Cohen kappa rating according to the classification of [23].

4. Results

4.1. Disaster Risk Index of African Countries

From the 2022 INFORM disaster risk index, ten African countries had very high disaster risk indexes, while twenty countries were categorized as having high-risk rankings. Additionally, eighteen countries fell into the medium-risk category. Conversely, a subset of six countries, namely Botswana, Cabo Verde, Mauritius, Sao Tome and Principe, Seychelles, and Tunisia, exhibited very low to low-risk indexes. Notably, four of these countries are primarily island states (Figure 2).

4.1.1. Important Variables of Disaster Risk in Africa

Based on our analysis of the INFORM data, the Random Forest (RF) model consisted of 500 trees without a specified limit on the maximum number of terminal nodes in a tree. The model tested eight variables at each split. The RF regression algorithm achieved a high accuracy, explaining 86% of the variance of listed variables.

4.1.2. Variable Importance Measures: Distribution of Minimal Depth

The minimal depth of a variable signifies its proximity to the root of the tree and its correlation with the dependent variable (risk index). In Figure 3, the top 10 variables display lower mean minimal depths, indicating trees were split up to a depth of 13. Figure 4 illustrates the notable variables selected from the RF analysis (Figure 1), emphasizing their closeness to the root of the tree and their correlation with the overall risk index.
Therefore, the ten key disaster risk drivers identified by the variable importance analyses include projected conflict risk, current highly violent conflict intensity, development and deprivation, vulnerable groups, uprooted people, governance, infrastructure, communication, physical infrastructure, and access to health care (Figure 4).

4.2. Important Disaster Risk Factors Included within Analysed Policies

Among the 25 analyzed policy documents from the ten high-risk countries, a total of 3958 keywords were identified. These keywords were categorized into the hazard, vulnerability, and lack of coping capacity concepts, representing 4.27%, 64.96%, and 30.77% respectively of the total keyword count in the policies. For a comprehensive breakdown of the keyword counts per risk factor and sub-components, please refer to Table 3. Also, more details are contained in Appendix Table A3.
Core policies of the ten African countries rated as having very high disaster risk (or at-most-risk) did not significantly integrate (human) hazard drivers identified in this study. Only a few policies from nations like Somalia, South Sudan, and the Democratic Republic of Congo (DRC) displayed limited mentions of conflict-related aspects. In contrast, vulnerability-related concepts were more commonly incorporated, followed by indicators depicting a lack of coping capacity (Table 3). Moreover, a weak positive correlation was observed; a higher risk index corresponded to increased counts of the key concepts included in the examined policies (R = 0.17, Figure 5). Hence, countries with higher disaster risk indexes incorporated more concepts related to disaster risk drivers within their policies.

5. Discussion

5.1. Disaster Risk and Important Drivers in Africa

A significant portion of African countries, precisely 20 out of the total, placed at high levels on the disaster risk index. Interestingly, half of this subset, accounting for 10 countries, falls into the classification of very high risk. This underscores the widespread vulnerability and exposure to disasters across the continent. Conversely, only six African countries, mainly island states, demonstrate very low to low risk indexes. According to the UNISDR [24] definition of disaster risk, these 30 countries face elevated probabilities of experiencing loss of life, injuries, and damages due to disasters. Interestingly, findings derived from the INFORM data slightly contrast with a similar risk index presented by [25], which considers exposure, susceptibility, coping, and adaptive capacity. Notably, countries categorized as having medium risks by the World Risk Index (WRI) of [25], such as Uganda, Kenya, South Africa, the Central African Republic (CAR), and the DRC, are designated as high to very high risk based on the INFORM dataset. This variation in results may be attributed to disparities in data sources and methodologies between the INFORM and WRI assessments.
The key drivers of African countries’ disaster risk index encompass factors such as uprooted populations, anticipated conflict risks, vulnerable groups, prevailing highly violent conflicts, physical infrastructure, development status, deprivation levels, governance effectiveness, communication networks, and access to healthcare. Notably, among these factors, five are associated with the lack of coping capacity, three with vulnerability, and two with human (rather than natural) hazards. Factors such as governance, migration, and conflicts have been previously identified as drivers of environmental challenges in parts of Sub-Saharan Africa by the Global Environment Facility [26]. Consequently, lack of coping capacity and vulnerability stand out as the primary drivers of disaster risk in Africa. This aligns with the findings reported by [27], who indicate that African nations exhibit the highest vulnerability on a global scale. Additionally, the projection of [28] regarding Africa bearing an increasing share of the globally exposed and vulnerable population to the impacts of global warming remains relevant. In general, our findings are in harmony with Imperiale and Vanclay’s [29] perspective on the social aspects of risks. We therefore argue that in Africa, natural hazards, in isolation, are not the primary triggers of disasters; rather, the complex interplay of various social factors. Many of these factors, identified as disaster risk drivers in our study, contribute significantly to the dynamics of disasters on the continent.
Violent conflicts, whether ongoing or anticipated in the future, emerge as critical predictors of disaster risk in Africa, demanding substantial attention and concern. These conflicts often find roots and are intricately linked to multifaceted issues like poverty, human rights violations, governance challenges, ethnic marginalization, and the proliferation of small arms [30]. Remarkably, these conflict-related factors exhibit close associations with crucial elements contributing to vulnerability and lack of coping capacity, such as vulnerable groups, development status, deprivation levels, and governance quality. Importantly, most of these elements share similarities with the conditions of poverty. The literature presents various perspectives on the relationship between poverty and conflicts in Africa. While [30] emphasizes poverty as a primary driver of conflicts, recent findings by [31] suggest that poverty may stimulate rather than cause conflicts, attributing political, structural, and sociological factors as primary drivers. Furthermore, Witmer et al. [32] forecast that inadequate improvements in political rights within sub-Saharan Africa, coupled with population growth and rising temperatures, could escalate violence in the region.
Climate change has emerged as a significant contributing factor to conflicts in Africa, primarily perpetuating existing conflicts rather than initiating new ones, as noted by van Weezel [33]. The impact of varying degrees of climate change on critical aspects like agriculture, resource scarcity, and migration significantly heightens armed conflicts across the continent [34]. Similarly, ref. [35] present compelling evidence linking climate change, especially rising temperatures, to various violent outcomes such as large-scale group conflicts, interpersonal conflicts, and self-harm across continents and various timeframes. Notably, these influences may differ by geographic location in Africa. The findings of [36] suggest that changing climatic conditions elevate conflict risks in Northern and large parts of Eastern Africa while potentially reducing conflict risks in the West and northern Sahel regions. It is crucial to recognize that violent conflicts, in turn, exacerbate the vulnerability of populations, emphasizing the intricate relationship between environmental changes, conflicts, and increased societal vulnerability.
Conflicts have a profound effect on displacing populations, particularly impacting vulnerable groups such as individuals living with disabilities, pregnant and lactating women, the elderly, children, religious minorities, and indigenous communities. The mid-year report by the United Nations High Commissioner for Refugees [UNHCR] [37] highlights a staggering 4.95 million refugees and asylum-seekers in the Eastern Africa region, with approximately 2.35 million originating from South Sudan. Moreover, conflict and natural disasters have led to the displacement of 12.83 million Internally Displaced Persons (IDPs), primarily concentrated in countries like Sudan, South Sudan, Ethiopia, Somalia, and Burundi. These findings underscore the multifaceted impact of conflicts, indicating further complexities considered in this study.

5.2. Inclusion of Important Disaster Risk Factors in Selected National Action Plans

Based on the analysis of policy documents, it is evident that most concepts integrated into core policies (i.e., DRR policies, NDCs, and NAPAs) largely pertain to vulnerability and adaptive capacity variables. Notably, the crucial hazard variable of violent conflict is clearly underrepresented in these documents. Core policies of countries such as the DRC, Somalia, and South Sudan have demonstrated comparatively higher levels of inclusion of the violent conflict concept than their counterparts of very high disaster risk index such as countries like Nigeria, Chad, the CAR, Ethiopia, and Mali, which minimally incorporated the concept. Moreover, Mozambique and Niger depicted near-zero inclusion of violent conflict concepts in their core policy documents.
According to global reports, the 10 countries classified as having very high disaster risk levels, as considered in this study, exhibit varying degrees of current highly violent conflicts. Specifically, four of these countries—the CAR, the DRC, Somalia, and South Sudan—rank among the 10 least-peaceful nations, according to the Institute for Economics and Peace (IEP) [38]. Additionally, seven out of the ten countries included in this study, such as Chad, DRC, Mali, Mozambique, Niger, Nigeria, and Somalia, are among the most impacted countries by terrorism [39]. Moreover, recent years have seen successful coups in Chad, Mali, and Niger alongside unsuccessful attempts in CAR. Furthermore, current interstate tensions are evident between several countries including DRC and Rwanda, Ethiopia and Sudan, Kenya and Somalia, and Sudan and South Sudan, as reported by the International Institute for Strategic Studies [40].
The limited inclusion of violent conflict concepts within the chosen policy documents addressing disaster risk in Africa may pose challenges to effective disaster risk management, DRR and sustainable development [11]. Failure to address human-induced hazards, vulnerability, and inadequate coping capacity, while attributing disasters solely to natural causes, could lead to authorities evading their responsibilities. This will perpetuate an unjust status quo where the most vulnerable populations bear the brunt of disasters repeatedly [41].
Policies geared towards effective disaster risk reduction should comprehensively address all aspects of risk, including hazards, vulnerability, and coping capacity. Inadequate coverage of (any of) these elements within policies may lead to inefficiency in tackling disaster risks, exacerbated by current and future impacts of climate change [42]. Therefore, it is imperative for African countries, particularly those facing medium to very high risk, to enhance the content and caliber of their DRR policy frameworks [6].

6. Conclusions

This study unveils important factors that predict disaster risk in Africa and evaluates their representation within major core policies. Remarkably, among the identified drivers, only violent conflict emerged as a hazard component, while most drivers fell under lack of coping capacity, followed by vulnerability factors. Collectively, these drivers underscore the human-induced nature of disaster risks in Africa. We found a limited inclusion of concepts related to violent conflicts, but a higher inclusion of concepts linked to vulnerability in the core policies examined. Our findings challenge prevalent assumptions within Africa’s disaster risk literature. Firstly, the absence of natural hazards among the identified significant variables diverges from the traditional focus on natural hazards in the region’s disaster risk discussions. Secondly, the social aspects of disaster risks, with facets of human vulnerability and inadequate coping capacity were underscored in our study. Future iterations of DRR policy frameworks must encompass these identified factors, aligning with Africa’s broader developmental challenges, notably in sub-Saharan Africa.
In conclusion, comprehensive policy frameworks in addressing disaster risks, particularly in vulnerable regions such as sub-Saharan Africa are vital. Our findings emphasize that effective DRR requires policies that holistically incorporate factors of hazards, vulnerability, and coping capacity. Policies should encompass disaster drivers and regionally relevant factors that hold the key to reducing disaster risk in countries facing high or very high levels of risk. Such policies are essential to fortify resilience and advance progress towards the objectives outlined in the SFDRR and the Sustainable Development Goals of Agenda 2030. An integral aspect of revised policies should aim to alleviate poverty within the population as a means of diminishing vulnerability, enhancing coping capacity, and fostering resilience against disaster risks.
Therefore, collectively addressing all elements of risk is essential to mitigate the devastating impacts of disasters, especially in regions facing high disaster risks. Furthermore, the study highlights the need for increased attention to the inclusion of human hazards, such as violent conflicts, within DRR policies. Neglecting these human-induced risks can impede sustainable development and exacerbate the vulnerabilities of the most marginalized populations during crises. Thus, we advocate for robust, inclusive, and adaptive policy frameworks to enhance resilience and support sustainable development efforts in disaster-prone regions.

7. Limitations and Suggestions for Further Research

This study draws upon pre-existing datasets and policy documents, which, by nature, could harbor certain limitations, such as potential incompleteness or issues concerning data quality. While the findings provide valuable insights, particularly in the analysis of policy content, it is essential to note that these outcomes might not comprehensively represent the entirety of the African continent. The study focused solely on core policies from ten countries classified as having very high disaster risk indexes, potentially limiting the generalizability of the conclusions to the broader African context.
Moreover, the content analyses could be subject to limitations due to translation challenges. Some documents underwent machine translation from French to English before analysis, which might have impacted the accuracy or nuanced understanding of the content, potentially influencing our interpretations. Also, the absence of spatiotemporal assessments in this study is noteworthy. These assessments, which track changes over time and across different regions, were not incorporated. Their inclusion could have offered a more dynamic perspective, reflecting evolving circumstances and variations across various temporal and geographic contexts. However, a recent study [12] offers detailed spatiotemporal analyses using INFORM decadal data. Using decadal data, the extrapolation of disaster risk drivers for prediction is an aspect that could be explored in future research.
Despite these limitations, this research augments the comprehension of disaster risk dynamics in Africa, offering invaluable guidance for policymakers, researchers, and practitioners in the field of DRR. Given the complex interplay of environmental, socioeconomic, and conflict-driven factors contributing to disaster risk in Africa, future comprehensive case studies of at-most-risk African countries are vital. These studies should identify specific country- or community-driven risk factors, thereby shaping more tailored policy frameworks and national developmental strategies to enhance coping mechanisms and mitigate vulnerabilities toward both natural and human hazards. Further content analyses, particularly latent content analyses, would transcend keyword-based methodologies, integrating interpretation and contextualization of textual data, enriching future policy explorations.

Author Contributions

Conceptualization, E.E.; methodology, E.E.; formal analysis, E.E.; resources, A.S. and E.E.; data curation, E.E.; writing—original draft preparation, E.E.; writing—review and editing, E.E. and A.S.; visualization, E.E.; supervision, A.S. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Data Availability Statement

Part of the data that support the findings of this study are publicly available online at https://drmkc.jrc.ec.europa.eu/inform-index/ (accessed on 15 December 2022). The list of the policies analyzed in this study and their sources are presented in the Appendix Table A1.

Acknowledgments

Author E.E. expresses sincere gratitude to the German Academic Exchange Service (DAAD) for their generous doctoral grant stipends that supported the research reported in this paper. Special appreciation is extended to Chinazaekpere Peace for their invaluable support during the research process. The paper’s grammar structure was enhanced using Grammarly.

Conflicts of Interest

The authors declare that there are no known competing financial interests or personal relationships that influenced the work reported in this paper.

Appendix A

Table A1. List of policy documents used for content analysis.
Table A1. List of policy documents used for content analysis.
  • Federal Democratic Republic of Ethiopia (2007). Climate Change National Adaptation Programme of Action (NAPA) of Ethiopia. National Meteorological Agency. Pp85
  • Federal Democratic Republic of Ethiopia (2013). National Policy and Strategy on Disaster Risk Management. Addis Ababa. Pp21.
  • Federal Democratic Republic of Ethiopia (2021). Updated Nationally Determined Contribution. Pp38
  • Federal Government of Nigeria (2021). Nigeria’s Nationally Determined Contribution. Federal Ministry of Environment, Abuja. Pp50
  • Federal Ministry of Environment Special Climate Change Unit (2011). National Adaptation Strategy and Plan of Action on Climate Change for Nigeria (NASPA-CCN). Pp101
  • Federal Republic of Nigeria (2010). National Disaster Framework. Pp68 https://www.preventionweb.net/files/21708_nigherianationaldisastermanagementf.pdf. Accessed on 15 November 2022.
  • Government of Mali (2010). Plan national multi risques de preparation et de response aux catastrophes. Préparation, interventions des premiers secours, Réhabilitation et reconstruction. Pp106 https://www.preventionweb.net/publication/mali-plan-national-de-contingence-multirisques-de-preparation-et-de-reponse-aux. Accessed on 12 October 2022.
  • Government of Mozambique (2007). National Adaptation Programme of Action (NAPA). Ministry for the Co-ordination of Environmental affairs (MICOA). Pp62
  • Government of Mozambique (2021). Updated First National Determined Contribution of Mozambique. Climate Change Directorate, Ministry of Land and the Environment. 105 pp.
  • International Federation of Red Cross and Red Crescent Societies [IFRC] (2012). Plan d’organisation de secours en cas de catastrophe. pp153. https://www.ifrc.org/docs/idrl/rdc%20plan.pdf. Accessed on 12 October 2022.
  • Ministry of Humanitarian Affairs and Disaster Management [MHADM] (2018). MHADM Strategic Plan 2018–2020. Pp36
  • Republic of Mozambique (2017). Plano Director Para a Redução do Risco de desastres 2017–2030. Pp37 https://www.preventionweb.net/files/64564_planodirectorparareducaodoriscodede.pdf. Accessed on 12 October 2022.
  • Republic of Niger (2006). National Adaptation Programme of Action. Pp83
  • Republic of South Sudan (2016). National Adaptation Programme of Action (NAPA) to Climate Change. Ministry of Environment, Republic of South Sudan. Pp65
  • Republique Centrafricaine (2008). Programme d’action National d’adaptation (PANA) aux changements climatiques. Pp67
  • Republique Centrafricaine (2021). Contribution Determinee au niveau National (CDN) version revise. Ministere de L’environnement et Du Developpement Durable. Pp36
  • Republique Democratique du Congo (2006). Programme d’Action National d’Adaptation au Changement Climatique de la République Démocratique du Congo. Ministere de L’environnement. Pp94
  • Republique Democratique du Congo (2021). Contribution Déterminée à l’échelle Nationale révisée. Ministère de l’Environnement et Développement Durable Pp102
  • Republique du Mali (2007). Programme d’Action National d’Adaptation aux Changements Climatiques. Direction Nationale de la Meteorologie. Pp100
  • Republique du Niger (2021). Contribution Déterminée au Niveau Nationale. Pp30
  • Republique du Tchad (2010). Programme d’action National d’adaptation (PANA) aux changements climatiques (PANA-TCHAD). Ministère de l’Environnement, de l’Eau et des Ressources Halieutiques. Pp 63
  • Republique du Tchad (2021). Mise a Jour de la Contribution Determinee Nationale (CDN). Republique du Tchad. Pp51
  • The Federal Republic of Somalia (2013). National Adaptation Programme of Action. Ministry of National Resources. Pp93
  • The Federal Republic of Somalia (2021). Updated Nationally Determined Contribution. Pp12
  • The Republic of South Sudan (2021). South Sudan’s Nationally Determined Contribution. South Sudan Ministry of Environment and Forestry, Juba. Pp163
Table A2. Inter-rater reliability measurement results.
Table A2. Inter-rater reliability measurement results.
Concepts SearchedCoded CountMatched CodingPercentage Match/Accuracy
Violent conflict642234.38
Uprooted people 484491.67
Vulnerable Groups6278125.81
Development & Deprivation50450099.21
Physical infrastructure20413968.14
Governance 3739105.41
Communication6568104.62
Access to health care 1920105.26
100391090.73
Note: Coded count is from authors’ Analyses; matched coding is from independent rater analysis.
Table A3. Disaster risk indexes and concept count results from national action plans.
Table A3. Disaster risk indexes and concept count results from national action plans.
COUNTRYCentral African Republic (CAR)ChadCongo DREthiopiaMaliMozambiqueNigerNigeriaSomaliaSouth Sudan
INFORM Risk Index7.77.87.66.977.27.46.58.88.5
Current Highly Violent Conflict Intensity Index89999999109
DRR NANA26330NA3NA9
NDC 0221NA002325
NAPA 3325001083119
Uprooted people Index9.89.39.58.57.48.288.11010
DRR NANA131202NA7NA5
NDC 0110NA21254
NAPA 01421305155
Vulnerable Groups Index8.77.78.16.76.97.77.26.49.49.3
DRR NANA811252NA1NA5
NDC 127463NA518515
NAPA 181417213222161122
Development & Deprivation Index10108.99.39.49.3108.29.79.7
DRR NANA824010884NA71NA82
NDC 3710412261NA52207929185
NAPA 14478901321224211214811046
Infrastructure Index9.39.758.859.056.958.159.27.48.19.65
DRR NANA4735113NA15NA2
NDC 32676418NA396306042
NAPA 281320141793624517
Governance Index7.97.98.36.27.276.57.399.3
DRR NANA20112NA13NA3
NDC 17250NA093019
NAPA 33210101052
Communication Index9.18.97.47.46.97.48.96.57.99.4
DRR NANA23081NA3NA2
NDC 4212711NA9719381
NAPA 25018527211480
Access to health care Index9.49.587.87.96.37.59.19.69.4
DRR NANA19080NA1NA0
NDC 0000NA10103
NAPA 20303011170
Note: DRR = Disaster Risk Reduction policies; NDC = Nationally Determined Contribution; NAPA = National Adaptation Programme of Action.

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Figure 1. Components of the INFORM model. Source: Eze and Siegmund [12].
Figure 1. Components of the INFORM model. Source: Eze and Siegmund [12].
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Figure 2. Disaster risk index classes of African countries. Source: INFORM dataset, 2022.
Figure 2. Disaster risk index classes of African countries. Source: INFORM dataset, 2022.
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Figure 3. Distribution of minimal depth among the forest trees. A black vertical bar marks the mean of the distribution, and a value label is inscribed. Abbreviations: uprp—Uprooted people; prj_conf—Projected Conflict Risk; vulg—Vulnerable Groups; cur_conf—Current Highly Violent Conflict Intensity; phinfr –Physical infrastructure; infr—Infrastructure; dev—Development & Deprivation; govc—Governance; comm—Communication; hltcr—Access to health care. Source: Own analysis.
Figure 3. Distribution of minimal depth among the forest trees. A black vertical bar marks the mean of the distribution, and a value label is inscribed. Abbreviations: uprp—Uprooted people; prj_conf—Projected Conflict Risk; vulg—Vulnerable Groups; cur_conf—Current Highly Violent Conflict Intensity; phinfr –Physical infrastructure; infr—Infrastructure; dev—Development & Deprivation; govc—Governance; comm—Communication; hltcr—Access to health care. Source: Own analysis.
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Figure 4. Resulting important variables of disaster risk index for Africa. Source: Own analysis.
Figure 4. Resulting important variables of disaster risk index for Africa. Source: Own analysis.
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Figure 5. Disaster risk keyword-inclusion rates in selected policies for African countries of very high disaster risk index. Source: Own analysis.
Figure 5. Disaster risk keyword-inclusion rates in selected policies for African countries of very high disaster risk index. Source: Own analysis.
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Table 1. Publication year of policy documents used for the content analyses in this study.
Table 1. Publication year of policy documents used for the content analyses in this study.
CountryDisaster Risk Reduction PolicyNationally Determined ContributionNational Adaptation Programme of Action for Climate Change *
1Central African Republic (CAR)None2021 **2008 **
2ChadNone2021 **2010 **
3DR Congo (DRC) 2012 **2021 **2006 **
4Ethiopia201320212007
5Mali2010 **Inaccessible: Could not translate2007 **
6Mozambique2017 **20212007
7NigerNone2021 **2006 **
8Nigeria201020212011
9SomaliaNone20212013
10South Sudan201820212016
* Sourced from https://unfccc.int/topics/resilience/workstreams/national-adaptation-programmes-of-action/napas-received (accessed on 15 December 2022); ** Document Machine-translated into the English Language before the content analyses.
Table 2. Coding schematics used for keyword search hits in selected policy documents.
Table 2. Coding schematics used for keyword search hits in selected policy documents.
Keywords (Bolded)/Concepts Used for SearchIntended Contexts to Count
Conflict
Conflict/warArmed violent conflict episodes or war
Uprooted people
Refugees Refugees
Internally/Externally Displaced persons—IDPs/Displaced population Internally/Externally Displaced persons—IDPs/Displaced population
Vulnerable Groups
DisabilityPeople with disability
Disease/illness People living with diseases such as HIV, etc.
Other limitations (e.g., pregnancy, lactating mothers, children, and elderly/old/aged people) Pregnant women, lactating mothers, children, and elderly/old/aged people
Minorities/indigenous peoplesMinorities/indigenous peoples
Rural area population/dwellersRural area population/dwellers
Development & Deprivation
Social/economic development Social, economic and infrastructural development
Sustainable development Sustainable development
Life expectancyLife expectancy
EducationEducation
IncomeIncome
Living standardsLiving standards
HealthHealth
Poor people/householdsPoor people/households
DeprivationsDeprivations
Physical infrastructure
Roads Roads
Water source/access/drinking waterWater source/access/drinking water
Sanitation facilitiesSanitation facilities
Governance
Governance Governance
Corrupt/ion Corrupt/ion
Communication
Electricity Electricity
Internet Internet
Mobile phone/cellphone/landline/telephoneMobile phone/cellphone/landline/telephone
Access to healthcare
Physicians/Doctors Physicians/Doctors
Hospital/Clinic Hospital/Clinic
Immunisation/immunizationImmunisation/immunization
Note: Bolded text represent the disaster risk driver.
Table 3. Total inclusion of disaster risk driver keywords within selected policies.
Table 3. Total inclusion of disaster risk driver keywords within selected policies.
Risk FactorTotal CountComponentsTotal CountPercentage (%)
Hazards169Violent conflict1694.27
Vulnerability 2571Uprooted people
Vulnerable Groups
Development & Deprivation
100
291

2180
2.53
7.35

55.087
Lack of coping capacity1218Infrastructure
Governance
Communication
Access to healthcare
717
122
319
60
18.12
3.08
8.06
1.52
Total3958 3958100
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Eze, E.; Siegmund, A. Analyzing Important Disaster Risk Factors for Enhanced Policy Responses in Perceived at-Most-Risk African Countries. Environments 2024, 11, 27. https://doi.org/10.3390/environments11020027

AMA Style

Eze E, Siegmund A. Analyzing Important Disaster Risk Factors for Enhanced Policy Responses in Perceived at-Most-Risk African Countries. Environments. 2024; 11(2):27. https://doi.org/10.3390/environments11020027

Chicago/Turabian Style

Eze, Emmanuel, and Alexander Siegmund. 2024. "Analyzing Important Disaster Risk Factors for Enhanced Policy Responses in Perceived at-Most-Risk African Countries" Environments 11, no. 2: 27. https://doi.org/10.3390/environments11020027

APA Style

Eze, E., & Siegmund, A. (2024). Analyzing Important Disaster Risk Factors for Enhanced Policy Responses in Perceived at-Most-Risk African Countries. Environments, 11(2), 27. https://doi.org/10.3390/environments11020027

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