Disaster ethical and risk considerations have received a growing—and needed—interest in the past few years. This has led to a rise in the likes of calls for ‘Disaster-zone Code of Conduct’ (see Profs Gaillard and Peek in Nature) and disaster discipline-specific ethical standards (see Dr Traczykowski in RADIX).

The ‘Box-Ticking’ Exercise

Ethical and risk considerations have long been treated as peripheral to a research project and only reflected upon when applying for ethics and risk assessment approval from a university – with such procedures often viewed as an ‘obstacle’. Common complaints are centred around the time it takes to fill in various forms and providing documentation, as well as the length of the review process. The approval procedures have largely been derived from medical and physical sciences using quantitative methods and analysis. As such, their appropriateness to disaster studies, as well as being treated as a tick-box mentality, has been critiqued by disaster and other social science researchers. There is a need for ethical and risk considerations to be reflected and acted upon throughout the entirety of a project.

Disaster Ethical and Risk Considerations

Many of the ethical and risk considerations and procedures used in disaster studies have been drawn from lessons and practices in the humanitarian and global health sector. Such sectors tend to operate in different contexts and landscapes than disaster research. A lot of the time, disaster researchers are not working in such controlled spaces or in teams, like in humanitarian responses (see Dr Smirl’s book Spaces of Aid: How Cars, Compounds and Hotels Shape Humanitarianism). Therefore, it is important to reflect and develop ethical and risk considerations which are representative of disaster research.

‘Outsourcing’ of Ethics and Risk

A common mitigation strategy and ‘best practice’ used to overcome certain ethical and risk considerations is to collaborate with local partners or research assistants. For example, having locals conduct surveys or hiring a local person as a driver or translator. Whilst this can contribute great value and legitimacy to a project, it can also (unintentionally) create situations and conditions which may place such individuals in precarious situations (see Mena and Hilhorst’s paper on ethical considerations in disaster and conflict-affected areas or Redfield’s (2012) paper on Médecins Sans Frontières efforts to decolonize). For example, locals being asked by authorities to share information about the project(s) or non-local researchers. As such, this can potentially transfer the onus of ethics and risk from the principal researcher and their institute to their local counterparts.

To assess ethical and risk considerations effectively, research plans and actions should be reviewed and revised during the entirety of the project—with a focus on the relation with others including local people, partners, and organisations/institutions.

Future of ethical and risk considerations in disaster studies

There is a growing recognition within the disaster studies that there is a need to engage in more ethically and risk aware research practices. Some scholars are using and encouraging the use of more reflexive and creative methodologies and methods – stimulating a move away from the historically popular quantitative methods and fully-objective approaches. Multi-media use in combination with more traditional methods, such as interviews, have been increasingly used in disaster research and publications. For example, using playdough or body-mapping workshops and interviews to describe experiences of floods in South Africa (see Emily Ragus) or creating novella-based creative workshops and interviews with Puerto Rican families about their experiences of recovery from Hurricane Maria (see Dr Gemma Sou).

Whilst certain methods may not be new, per-se, the reflexive manner to which they have been applied to disaster studies can be argued to be novel and showing a shift in general approaches. Such approaches will – of course – have their set of ethical and risk considerations, however, these types of approaches have the potential to be more in-tune with such considerations for the researcher, participants, and wider populations. The growing momentum of such approaches is recognised in the likes of an increasing number of signatories to the RADIX Disaster Manifesto and Accord, as well as an upcoming special issue in the popular disaster journal, Disaster Prevention and Management, on ‘Creative, Reflexive, and Critical Methodologies in Disaster Studies’ with a focus on ethical dimensions and power imbalances.

As disasters continue to be experienced and researched globally, it is important that continued efforts are made to further integrate ethical and risk considerations in disaster research. Collaborating and sharing experiences, lessons, and reflections with other disaster researchers and practitioners will be significant in working towards keeping everyone safe in the research of preventing, experiencing, and recovering from disasters.

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Mhari Gordon is a PhD student at the UCL Institute for Risk and Disaster Reduction. Her research focuses on displaced populations and their experiences of risk, disasters, and warnings, which is funded by the UCL Warning Research Centre. During her PhD, she has been active in other research projects, teaching, and volunteering. Mhari would like to gratefully acknowledge UCL IRDR for funding the expenses to attend the NEEDS 2023 Conference.

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The views expressed in this blog are those of the author.

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Water sustains life and livelihoods. It is intrinsically linked to all aspects of life from maintaining a healthy life, growing food, and economic development to supporting ecosystems services and biodiversity. Groundwater—water that is found underneath the earth’s surface in cracks and pores of sediments and rocks—stores almost 99% of all liquid freshwater on Earth. Globally, it is a vital resource that provides drinking water to billions of individuals and supplies nearly half of all freshwaters used for irrigation to produce crops. But are we using it sustainably?

Abstraction

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Groundwater is dug out of subsurface aquifers by wells and boreholes, or it comes out naturally through cracks of rocks via springs. Today, about 2.5 billion people depend on groundwater to satisfy their drinking water needs, and a third of the world’s irrigation water supply comes from groundwater. It plays a crucial role in supplying drinking water during disasters such as floods and droughts when surface water is too polluted or absent. Despite its important role in our society, the hidden nature of groundwater often means it is underappreciated and underrepresented in our global and national policies as well as public awareness. Consequently, A hidden natural resource that is out of sight is also out of mind.

Some countries (e.g., Bangladesh) are primarily dependent on groundwater for everything they do from crop production to the generation of energy. Other countries like the UK use surface water alongside groundwater to meet their daily water needs; some countries (e.g., Qatar, Malta) in the world are almost entirely dependent on groundwater resources. Because of its general purity, groundwater is also heavily used in the industrial sector.

Monitoring

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Despite our heavy reliance on it, there is a lack of groundwater monitoring across the world. Monitoring of groundwater resources, both quality and quantity, is patchy and uneven. Developed countries like Australia, France and USA have very good infrastructure for monitoring groundwater. Monitoring is little or absent in many low- and medium-income countries around the world. There are some exceptions as some countries in the global south such as Bangladesh, India and Iran do have good monitoring networks of groundwater levels.

Groundwater storage changes are normally measured at an observation borehole or well manually with a whistle attached to a measuring tape, so when it comes into contact with water, it makes a sound. It can be also monitored by sophisticated automated data loggers. Groundwater can be monitored indirectly using computer models and, remotely at large spatial scales, by earth observation satellites such as the Gravity Recovery and Climate Experiment (GRACE) twin satellite mission. Models and satellite data have shown that groundwater levels are falling in many aquifers around the world because of over-abstraction and changes in land-use and climate change. However, due to lack of global-scale monitoring of groundwater levels, mapping of world’s aquifers has not been done at the scale of its use and management.

Current research

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New research published in Nature (Rapid groundwater decline and some cases of recovery in aquifers globally) led by researchers from UCL, University of California at Santa Barbara and ETH Zürich has analysed groundwater-level measurements taken over the last two decades from 170,000 wells in about 1,700 aquifer systems. This is the first study that has mapped trends in groundwater levels using ground-based data at the global scale in such an unprecedented detail that no computer models or satellite missions have achieved this so far. The mapping of aquifers in more than 40 countries has revealed great details of the spatiotemporal dynamics in groundwater storage change.

The study has found that groundwater levels are declining by more than 10 cm per year in 36% of the monitored aquifer systems. It has also reported rapid declines of more than 50 cm per year in 12% of the aquifer systems with the most severe declines observed in cultivated lands in dry climates. Many aquifers in Iran, Chile, Mexico, and the USA are declining rapidly in the 21^st century. Sustained groundwater depletion can cause seawater intrusion in coastal areas, land subsidence, streamflow depletion and wells running dry when pumping of groundwater is high and the natural rates of aquifer’s replenishment are smaller than the withdrawals rates of water. Depletion of aquifers can seriously affect water and food security, and natural functioning of wetlands and rivers, and more critically, access to clean and convenient freshwater for all.

The study has also shown that groundwater levels have recovered or been recovering in some previously depleted aquifers around the world. For example, aquifers in Spain, Thailand as well as in some parts of the USA have recovered from being depleted over a period of time. These finding are new and can shed light on the scale of groundwater depletion problem that was not possible to visualise from global-scale computer models or satellites. This research highlights some cases of recovery where groundwater-level declines were reversed by interventions such as policy changes, inter-basin water transfers or nature-based but technologically-aided solutions such as managed aquifer recharge. For example, Bangkok in Thailand saw a reversal of groundwater-level decline from the 1980s and 1990s following the implementation of regulations designed to reduce groundwater pumping in the recent decades.

Groundwater is considered to be more resilient to climate change compared to surface water. Experts say climate adaptation means better water management. Globally, the awareness of groundwater is growing very fast. It has been especially highlighted in the latest IPCC Sixth Assessment Report, the UN World Water Development Report 2022 (Groundwater: Making the invisible visible), the UN Water Conference 2023, and more recently in COP28 (Drive Water Up the Agenda). Groundwater should be prioritised in climate and natural hazard and disaster risk reduction strategies, short-term humanitarian crisis response and long-term sustainable development action.

Read the full nature article.

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Dr Mohammad Shamsudduha “Shams” is an Associate Professor in IRDR with a research focus on water risks to public health, sustainable development, and climate resilience.

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The views expressed in this blog are those of the author.

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This month, the UCL Warning Research Centre held its first-ever 3-day conference ‘Creating Effective Warnings for All’. In the face of extreme geophysical and meteorological hazards, and the complex interactions of multiple forms of risk, early warning systems (EWS) are crucial for boosting preparedness and emergency response to mitigate disasters rooted in everyday social conditions. Here are four key takeaways from the conference.

Integration

EWS extend beyond the technical mechanisms for alerting people about emergencies, such as sirens and instant notifications. Early warnings need to form part of an integrated process that strengthens multi-hazard education, risk perception, risk communication, and preparedness measures. This can help shift disaster management from being reactive to increasingly proactive.

Inclusivity

For EWS to be effective, they must be inclusive, incorporating local stakeholder knowledge. This type of approach recognises specific vulnerabilities and capacities for disaster risk reduction among communities. Solutions must be context-sensitive, resources need to align with needs, and projects need to be structured around participatory processes to determine what works, where, and for whom.

Timing

Timeframes are key, whether we are in a moment of disaster or in ‘peace time’. Norms can become entrenched in times of intensified uncertainty; however, disasters can also provide a transformative moment to reassess existing structures and emergency protocols. Equally, we should harness the time in between crises to strengthen preparedness frameworks and collaborative networks for future resilience.

Creativity

Creativity is a powerful tool for rethinking existing solutions or imagining new ones. Cartoons, graphic recording, cardboard theatre, acrobatics, and interactive workshops were among the creative approaches used in the conference sessions, encouraging exploration of interconnected themes, such as climate change and mental health.

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Learn more about the UCL Warning Research Centre | Twitter | Linkedin | Facebook | Youtube

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Pauliina Vesaluoma recently completed the MSc in Risk, Disaster and Resilience at IRDR (2022/23). Natural hazard preparedness, volcanic risk reduction, and future resilience are among some of her main interests. Pauliina is currently undertaking a Business Resilience internship at Holcim.

Connect with her on Linkedin.

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Aisha Aldosery

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Mosquitos are a fundamental part of testing the novel idea of my PhD, which focuses on developing intervention tools to support developing an early warning system to control the mosquito, thus, combatting mosquito-borne diseases. However, with the COVID-19 pandemic, it was quite hard to fly to Brazil, considered one of the Latin American countries that was hit hard by mosquito-borne disease and has a strong program for mosquito surveillance. Therefore, conducting my fieldwork in a different location was more feasible, such as the Portuguese island of Madeira, located in the northeastern Atlantic Ocean, 900 km from mainland Portugal. A volcanic and subtropical island which seems like a perfect location for mosquitoes, it introduced an efficient program in 2005 focusing on mosquito surveillance. Four field trips have been conducted since November 2021 with Patty Kostkova, my primary supervisor, to achieve my project’s overarching goal. We worked together in designing and presenting several workshops on Madeira mobile app surveillance with the local environmental agents, as well as deploying several devices in the fields for environmental monitoring.

Trip One – Mosquito Ovitrap IOT-based System pilot system.

This trip was the first to Madeira after the COVID-19 pandemic; the trip was in late October 2021 and lasted for about three weeks. The main objectives of my first fieldwork trip (three weeks) were to establish a new collaboration with people from ITI / LARSyS, introduce and discuss my PhD idea with the team, and lastly, build a prototype version of the proposed system. Although the trip was considered short, we achieved a significant project milestone. During this trip, we started by calibrating the water sensors, building the IoT-based unit and deploying the prototype version of the MOISS system to understand how various weather and water parameters influence mosquito breeding and habitat favouring. The first version of the system has been deployed and running since November 2021 at the Natural History Museum of Funchal on Madeira Island. All timely data collected in the field by the sensors, such as the air temperature, humidity, pressure, water temperature, pH, DO, and conductivity, will be used along with the entomological data collected by the environmental agents to design and build a model to provide us with a better understanding of the mosquito’s development and presence.

Trip Two – Introducing Madeira Mosquito Surveillance App 

This trip was mainly about the project’s second component, which is about designing a mosquito surveillance app based on the local settings to be adopted by the environmental agents during their routine visits to the mosquito traps. To achieve that, establishing another collaboration with the local health sector is essential. The trip includes a couple of meetings and a workshop:

• Meetings with Dr Bruna Ornelas de Gouveia, Regional Directorate of Health in Madeira Island, to discuss and design the collaboration protocol with the UCL IRDR Centre for Digital Public Health in Emergencies (dPHE). The collaboration entitles us to pilot our app on the island and gives us access to historical mosquito density data.
• Meeting with the technical and GIS team, who showed us the mosquito data, hotspot maps and the effective strategies adopted by the local government to control mosquitoes across the island (https://www.iasaude.pt/Mosquito/ ).
• We ran the first workshop with the environmental agents to introduce the idea of the surveillance app and how it could positively affect their work. During this workshop, we presented some showcases from our Brazilian project (Belmont) and a prototype of the Madeira app. The agents demonstrated different scenarios that could happen on the ground and what actions needed to be considered in each scenario. Finally, we had an interactive session, a very productive session that helped us understand the local settings in different conditions.

Trip Three – Mosquito Ovitrap IOT-based System (MOISS) Large Deployment.

The third fieldwork was the most significant and challenging trip as many milestones needed to be completed, including the IoT-based system units implementation and deployment, along with a lot of logical preparation. Yet, it was one of the most exciting trips to see the theories and paper design coming true. This trip was from July to the beginning of August 2022 (four weeks). The focus of this trip was the MOISS system. During this trip, we calibrated and tested 60 water sensors in a week period, which required specific weather conditions. Then, two engineers from ITI / LARSyS and I assembled 17 system units in a week, including the testing and debugging of each unit. The conducted lab testing was quite challenging, resulting in several issues, including problems with the manufactured IoT shield, slow network connections, power, etc. We ended up with 13 devices deployed across the capital of the Island, Funchal. The decision about how many devices and where to deploy them was collaborative work with environmental agents and the technical team to select suitable study sites based on several criteria, including technical, logistic and mosquito data. The locations include schools, hospitals, one university, the port, and a private building.

Trip Four – Madeira Mosquito Surveillance App Piloting Workshop

The last trip of this year (September 2022) was a four-day trip for Madeira. The main objective of this trip was to run a three-hour workshop with the environmental agents to show them the first completed developed version of the app, which is designed and implemented based on the requirements collected in the first workshop (second trip). Patty and I gave the agents technical support to install, operate and test the app for about two hours. After that, we had a one-hour interactive session to collect their inputs, which will help us improve the app and develop another sufficient version. The agents were delighted with the mosquito surveillance app and were excited about the next phase, piloting the app for several months.

During this trip, the project gained the attention and interest of local Madeira TV, which was there during the workshop and interviewed Prof Patty Kostkova.

We are currently looking for funding to develop and deploy the mosquito surveillance mobile app and collect data on a large scale. Finally, although each trip had its challenge, some went differently than we had planned and expected. I have learned much beyond my research scope and gained knowledge on project management and building collaboration. Many thanks to Patty for accompanying me in each project phase and trip to support me in moving the project forward. We had a great time enjoying the weather, and more significantly, we managed to deploy our IoT system and pilot the surveillance app.

Acknowledgements

Trip one was fully funded by the UCL Institution of Risk and Disaster Reduction (IRDR); trip two was fully funded by UCL Mathematical and Physical Science Faculty, PhD Students Travel Grant; trip three was mainly funded by the  UCL IRDR Centre for Digital Public Health in Emergencies (dPHE) and partially by the UCL Institution of Risk and Disaster Reduction (IRDR); trip four was fully funded by my PhD sponsor, King Abdulaziz City for Science and Technology, Saudi Arabia.

A big thanks and appreciation to our IRDR Finance team for their significant support which played a crucial role in helping me while preparing my PhD project. Special thanks to Matthew Lee for his outstanding support in managing equipment quotes and dealing with orders.

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Aisha Aldosery is currently a doctoral candidate at the UCL IRDR Centre for Digital Public Health in Emergencies at University College London. She is also a researcher at King Abdulaziz City for Science and Technology (KACST), Riyadh, Saudi Arabia. She earned her master’s degree in Software System Engineering from UCL. Her broad research areas are software engineering and the Applied Internet of Things. She is particularly interested in designing and developing digital health intervention tools such as surveillance and early warning systems. She is also interested in designing environmental IoT-based sensor devices and analysing sensor data using machine learning methodologies. The focus of Aisha’s PhD research project is investigating mobile apps, the Internet of Things (IoT) and sensing technologies for predicting mosquito populations to combat vector-borne diseases – a pertinent global issue with global research significance.

Mhari Gordon is a PhD student at UCL-IRDR.

This blog was jointly posted with RADIX and COPE.

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This month, November 2022, I was fortunate enough to attend and present at the Northern European Emergency and Disaster Studies (NEEDS) Conference as well as participate in the preceding PhD workshop. The PhD workshop was run over a day and a half by Emmanuel Raju, Ksenia Chmutina, and JC Gaillard and attended by 18 PhD students. The workshop was a fantastic experience and great opportunity to meet enthusiastic disaster scholars.

The workshop kicked off with an activity mapping how our PhD research topics connected in terms of key concepts, methodologies, research subjects or objects, and geographical locations. Despite diversity in our research orientations and backgrounds, the mapping exercise highlighted overlaps. For example, many of our studies focus on groups which are under-represented individuals in disaster studies, such as genders beyond the binary, learning challenges, youth, and refugees. We also noticed a trend in using methodologies which sit more on the mixed and qualitative methods side, moving away from large-scale approaches observed in quantitative methods.

Moreover, we recognised and spoke about our experiences of using concepts such as vulnerability, resilience, and intersectionality. Terms which were originally critical ‘western’ concepts that have now turned into mainstream buzzwords and act as blanket and uniform (or universalism) approaches in disaster studies. There is a tension between reclaiming the true heterogeneous nature of such concepts, but also debating the need to move beyond them. Such concepts may not have the same meanings, or even exist, in all cultures and languages. New disaster studies need to be more reflective and critical by expanding out of the previous siloing and labelling as well as welcoming the diversity of cultural contexts. This led to us reflecting on our positionality in studying disasters and how to navigate this in terms of methodologies and sharing our messages with audiences. During the afternoon sessions, we started asking questions such as why is the research being done and who will benefit? We then analysed and critiqued a more extensive set of questions which is outlined in the RADIX Disaster Studies Accord (link).

The second morning was dedicated to publishing in disaster journals. The workshop facilitators and guests, including Christine Eriksen, Rodrigo Mena, Eefje Hendriks, and Ricardo Fuentealba, shared valuable and practical advice. The two key takeaways from the morning were to consider 1) the editors of a journal and 2) the format of publication. As authors of academic publications, we need to critically consider how we can best present and do justice to the messages that we are sharing. This may be in the likes of keeping parts of the text in the original language so that the local context and meaning are not lost in translation or interpreted with western-academic terms and norms. Or the likes of different formats to the standard academic paper such as a comic strip – which will be included in an upcoming issue of the Disaster Prevention and Management Journal (journal link).

The advice shared with the PhD students for publishing in Disaster journals was:

Ask colleagues and mentors about their experiences with different journals and seek their advice on which journal they think is most suitable for our manuscript.

Read the scope of the journal and if there is still uncertainty about whether our manuscript’s topic fits, then send an email to the editor(s) asking for their advice before formally submitting.

Look at which journals our citations and references, as well as scholars with similar research interests, have published in. This will give one an initial indication of the type of work which is accepted by the journal.

Editors can usually tell by the title and first few sentences of the manuscript whether it will be accepted for peer review or not – so our manuscript needs to be convincing from the start.

Do not panic if it is taking a few months between the manuscript being accepted for review and receiving feedback. It can take time to find appropriate and willing reviewers and for them to review the manuscript. There are also unexpected delays or interruptions during this process.

Finally, if the authenticity of the research and manuscript does not match the standardised format but fits within the scope of a journal, then we should not hesitate to contact the editor(s) to see if they are willing and able to find a creative solution!

Overall, the key message from the PhD workshop was to keep pushing the boundaries of disaster studies, in terms of concepts, methodologies, and assumptions, as well as how we share our research!

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More information about the NEEDS 2022 conference, including keynotes and panels, can be found at: https://eventsignup.ku.dk/needs2022/conference.

I would like to gratefully acknowledge the UCL Warning Research Centre for funding my PhD study and the UCL Institute for Risk and Disaster Reduction for funding the expenses for me to attend the NEEDS 2022 Conference.