Figure 2 - uploaded by Monika Rydstedt Nyman
Content may be subject to copyright.
(a) Analytical framework focusing on the dynamics produced by the (local) interplay of natural hazards and vulnerabilities under (global) environmental change and socioeconomic trends. (b) Flood risk example at the local scale: explanatory model based on Di Baldassarre et al. (2013) emphasizing hypothetical feedbacks between five key variables that are assumed to influence each other and change gradually overtime (thin arrows), while being abruptly altered by the sudden occurrence of flooding (thick arrows). Dashed arrows indicate control mechanisms: wealth influences how flood exposure can potentially change overtime and also determines whether levees can be built or not, while levees reduce the frequency of flooding. (c) Hypothetical wealth trajectories in relation to disaster occurrences: bouncing back, forward or collapsing after a major disaster. (d) Ranges of availability of systematic time series across decades in the study of flood risk dynamics. The fuzzy classification highlights the limited availability of data to carry out empirical studies about socionatural interactions.

(a) Analytical framework focusing on the dynamics produced by the (local) interplay of natural hazards and vulnerabilities under (global) environmental change and socioeconomic trends. (b) Flood risk example at the local scale: explanatory model based on Di Baldassarre et al. (2013) emphasizing hypothetical feedbacks between five key variables that are assumed to influence each other and change gradually overtime (thin arrows), while being abruptly altered by the sudden occurrence of flooding (thick arrows). Dashed arrows indicate control mechanisms: wealth influences how flood exposure can potentially change overtime and also determines whether levees can be built or not, while levees reduce the frequency of flooding. (c) Hypothetical wealth trajectories in relation to disaster occurrences: bouncing back, forward or collapsing after a major disaster. (d) Ranges of availability of systematic time series across decades in the study of flood risk dynamics. The fuzzy classification highlights the limited availability of data to carry out empirical studies about socionatural interactions.

Source publication
Article
Full-text available
Climate change, globalization, urbanization, social isolation, and increased interconnectedness between physical, human, and technological systems pose major challenges to disaster risk reduction (DRR). Subsequently, economic losses caused by natural hazards are increasing in many regions of the world, despite scientific progress, persistent policy...

Contexts in source publication

Context 1
... argue that one essential step to further strengthen evidence-based DRR policy-making, and to solve the three puzzles identified above, is to advance the understanding of the feedback mechanisms between natural and social processes by integrating the hazard and vulnerability paradigms. We therefore propose a research framework (Figure 2a) that builds from social-ecological systems ), community resilience ( Cutter et al., 2008), climate change adaptation (Birkmann & von Teichman, 2010), and sociohydrology ( Sivapalan et al., 2012). ...
Context 2
... integrative framework specifies how the impacts and perceptions of natural hazards influence sociotechnical vulnerabilities, governance, and institutions, while at the same time social behavior, technical measures, and policy interventions alter the frequency, magnitude, and spatial distribution of natural hazards (Figure 2a). Reciprocal effects at the local scale are also influenced by global drivers. ...
Context 3
... illustrate the underlying logic of the proposed framework, and show how it can help guide empirical and modeling studies to address the three puzzles above, we present an example application in a flood risk setting. Figure 2b depicts an explanatory model of human-flood interactions, with positive and negative feedback mechanisms between a specific natural hazard, that is, flooding, and elements of vulnerabilities, that is, exposure, risk awareness, wealth, and structural protection measures (levees). This model can be seen as a specification of the more general framework depicted in Figure 2a. ...
Context 4
... 2b depicts an explanatory model of human-flood interactions, with positive and negative feedback mechanisms between a specific natural hazard, that is, flooding, and elements of vulnerabilities, that is, exposure, risk awareness, wealth, and structural protection measures (levees). This model can be seen as a specification of the more general framework depicted in Figure 2a. Technical, social, demographic, economic, and natural factors influence each other and gradually change overtime, while going through more abrupt change in the wake of flood events (Figure 2b). ...
Context 5
... model can be seen as a specification of the more general framework depicted in Figure 2a. Technical, social, demographic, economic, and natural factors influence each other and gradually change overtime, while going through more abrupt change in the wake of flood events (Figure 2b). The model uses change in risk awareness, among policymakers and communities, as a primary mechanism to explain the dynamics of risk. ...
Context 6
... dynamics, such as the one manifested by decreasing flood damage in Bangladesh, are explained by the model as an increase in risk awareness generated by frequent events, which tends to decrease exposure to flooding, and therefore losses (Figure 2b). Yet, there is evidence in other contexts that frequent (2013) emphasizing hypothetical feedbacks between five key variables that are assumed to influence each other and change gradually overtime (thin arrows), while being abruptly altered by the sudden occurrence of flooding (thick arrows). ...
Context 7
... can also gradually generate damage ( Moftakhari et al., 2017), which erodes community resilience and sustains a negative spiral toward significant loss of social and economic capital, as seen for example in parts of Southern Africa (Rockström, 2003). The integrative framework can help specify competing hypotheses, alternative to the one depicted in Figure 2b, explaining why some communities learn from frequent and severe hazards while others do not. ...
Context 8
... effects of risk reduction measures, such as the safe-development paradox, are explained by the model as a decrease of risk awareness produced by the prevention of frequent flooding caused by higher levees, which contributes to increasing exposure, and therefore higher losses (Figure 2b). This explanatory model also suggests the need of empirical studies about change in risk awareness across decades. ...
Context 9
... explanatory model also suggests the need of empirical studies about change in risk awareness across decades. Unfortunately, systematic monitoring of these variables, that is, longitudinal studies and comparable surveys of risk perception, is almost never available (Figure 2d). ...
Context 10
... framework can also provide guidance to identify, and systematically investigate, DRR bright spots emphasizing the social and natural factors that underlay different recovery trajectories (Figure 2c). After the occurrence of a major disaster, will the socionatural system bounce back or even forward? ...
Context 11
... will it collapse? Viglione et al. (2014), for example, used an explanatory model similar to the one depicted in Figure 2b to uncover the socionatural conditions in which different trajectories are produced. The outcomes highlighted the major role of attitudes toward risk, trust in DRR authorities, and the capacity to maintain high levels of risk awareness. ...
Context 12
... advance systematic empirical research, we propose the following essential steps. The integrative framework, which emphasizes the interplay of natural hazards and vulnerabilities (Figure 2a), can be used to DI BALDASSARRE ET AL.derive one or more explanatory models (as alternative hypotheses) about the way in which social, technical, and natural variables influence each other (Figure 2b). These models can then be tested by evaluating their capability to capture emerging tendencies, such as adaptation dynamics or safe-development paradoxes, or used to explore the socionatural factors triggering different trajectories (Figure 2c). ...
Context 13
... advance systematic empirical research, we propose the following essential steps. The integrative framework, which emphasizes the interplay of natural hazards and vulnerabilities (Figure 2a), can be used to DI BALDASSARRE ET AL.derive one or more explanatory models (as alternative hypotheses) about the way in which social, technical, and natural variables influence each other (Figure 2b). These models can then be tested by evaluating their capability to capture emerging tendencies, such as adaptation dynamics or safe-development paradoxes, or used to explore the socionatural factors triggering different trajectories (Figure 2c). ...
Context 14
... integrative framework, which emphasizes the interplay of natural hazards and vulnerabilities (Figure 2a), can be used to DI BALDASSARRE ET AL.derive one or more explanatory models (as alternative hypotheses) about the way in which social, technical, and natural variables influence each other (Figure 2b). These models can then be tested by evaluating their capability to capture emerging tendencies, such as adaptation dynamics or safe-development paradoxes, or used to explore the socionatural factors triggering different trajectories (Figure 2c). Lastly, these explanatory models can guide empirical studies as they can inform about the type of data we need to collect (Figure 2d) to better support evidence-based DRR. ...
Context 15
... models can then be tested by evaluating their capability to capture emerging tendencies, such as adaptation dynamics or safe-development paradoxes, or used to explore the socionatural factors triggering different trajectories (Figure 2c). Lastly, these explanatory models can guide empirical studies as they can inform about the type of data we need to collect (Figure 2d) to better support evidence-based DRR. Empirical studies will in turn allow evaluating the explanatory power of alternative models. ...

Similar publications

Article
Full-text available
The borehole transient electromagnetic (TEM) method can be useful in deep mineral exploration to detect blind ore bodies beside or below the borehole, and is especially adapted to finding small-scale, deep, rich ore bodies. In this method a transmitting loop is deployed on the top surface of the Earth, while a receiving coil is moved down the boreh...
Article
Full-text available
The growing needs of mankind for minerals predetermine a systematic increase in the scope of mining operations. However, it is known that mineral resources are not evenly distributed in the bowels of the earth; therefore, due to their production, some regions of our planet can significantly outstrip other regions in their technical and, as a result...
Article
Full-text available
Climate is a factor that affects the entire life of humans such as physiological development and characteristics, housing and house structures, food and cloth selections, and distribution on land. It is projected that global climate change would cause important changes in climate parameters in near future and affect the lives of all organisms on th...
Article
Full-text available
Antelope Island on Great Salt Lake provides an excellent opportunity to look at one of the world’s great geobiological records—the “Snowball Earth.” Snowball Earth refers to a unique time in Earth history before the dawn of skeletonized animals where there is substantial evidence to support glaciers at sea level in the equatorial regions. Many rese...
Article
Full-text available
In this study, we performed a long‐term ensemble hindcast from 1880 to 2017 (138 years) using the Community Earth System Model (CESM) and conducted a comprehensive investigation of the Indian Ocean Dipole (IOD) predictability. We found that the CESM can produce the IOD prediction skill comparable to that produced by some of the best state‐of‐the‐ar...

Citations

... In this paper, we have accounted for all three pillars of this belief. (1) The rationale is supported by an overwhelming number of studies across many fields calling for integrative work [23][24][25][26][27][28][29][30][31][32], which is exactly what we aimed to do. ...
Article
Full-text available
What is a species? That is one of the main questions in evolutionary biology, ecology, and conservation biology. Another question is this one: Can the degree of fish-likeness in birds be linked to the absence of poisonous fungi? Sparked by recent major ornithological advances we set out to assess whether the reason that some birds are more morphologically like fish than others could be explained by the prevalence of fungi of mild to severe toxicity. Whereas birds of several taxonomic orders are partly or predominantly aquatic, few have adapted so strongly to an underwater lifestyle as penguins (Sphenisciformes). These both eat fish and look like fish (what is up with that?), and predominantly occur in the Antarctic region, where environmental conditions largely prohibit the growth of poisonous fungi. On the other hand, birds with traditionally bird-like morphology (e.g., Gallus gallus) as well as fish with fish-like morphology (e.g., Engraulis sp.) seem to mostly occur sympatrically with mushrooms on pizzas. We thus conclude that the absence of poisonous mushrooms has led to the pronounced fishiness of certain members of class Aves. Using a sophisticated statistical framework, we also uncover an unexpected inter-class taxonomic relationship, and predict that the evolution of volant penguins because of climate change is mediated through shifted fungal distributions. Our study brings new and important perspectives to different fields, including climate change and invasion biology.