Category / Global engagement

GCRF Funding Panel

Research is a priority, it matters, and it is everyone’s responsibility here at BU. In April, we focus our stories on BU internal funding panels. This post shares the information about the Global Challenges Research Fund (GCRF) funding panel and awarded projects.

GCRF funding enables BU academics to undertake research in partnership with organisations in developing countries. Projects are aimed to help build collaborations with researchers, policymakers and practitioners, ensuring that the research provides tangible outcomes and impacts for people in those countries.

The GCRF panel is led by the Chair, Professor Lee Miles, and Vice-Chair, Luciana Esteves.

Travel restrictions introduced due to the pandemic have sometimes been a challenge for academics, however, everyone has demonstrated flexibility in adjusting project plans to minimise their impact on project delivery. This has even delivered some benefits, for example, encouraging greater partnership working and ensuring that projects are efficiently implemented by in-country organisations.

Funded projects

There have been quite a few previous posts on BU Research Blog related to GCRF funded projects; you can read more about such projects as ‘Rohingya refugee crisis’ (Bangladesh), ‘Indigenous people’s voices’ (Costa Rica and Malaysia), ‘Child soldiers’ (Colombia) and ‘Driving African Capacity-Building in Disaster Management’ (Sierra Leone, Senegal and Cameroon). In total, 22 GCRF applications have received funding.

One of the internally funded GCRF projects – ‘Enhancing Livelihood Resilience of Protracted Internally Displaced Persons (ELIED)’ – is led by Dr Henry Bang. The PI kindly provided a brief overview of the project and the work done so far.

‘The project was conceived against the backdrop of Cameroon’s Anglophone Crisis (AC). The AC is rooted in the country’s troubled colonial history that eventually gave birth to its dual bi-lingual heritage (French and English official languages). The ongoing conflict started in 2016 as peaceful street demonstrations by lawyers and teachers’ trade unions against the obligatory use of French language in the educational and legal systems in Cameroon’s two Anglophone Regions. The government’s harsh response eventually gave rise to secessionist groups in the Anglophone region that have led to armed confrontation with government security forces. The four-year conflict has led to more than 63,000 refugees and 679,000 internally displaced persons.

These persons are suffering several vulnerabilities associated with separation from the nurturing environments of their original/home communities. Notably, are deprivation from basic necessities like regular access to food and other essentials such as education and easy access to health care. This is mainly because they rely heavily on food aid and assistance from well-wishers and donors. Living such unsustainable lives requires targeted attention. Hence, this GCRF project aims to improve and enhance the welfare and build livelihood resilience for the internally displaced persons who are scattered around Cameroon’s 10 regions. A strategic objective is to shape the livelihood opportunities of the population to be non-aid dependent.

The project is moving at an endurable pace, adjusted in accordance with COVID-19 restrictions to achieve the project objectives by the deadline of July 31st, 2021. The PI, with in-country collaborators, have engaged multiple NGOs and research assistants to collect data from the internally displaced persons’ (pictures here are taken by in-country collaborators and illustrate data collection by NGOs).

This project involves many challenges, considering the constrained budget and the scope of work involved, especially in securing a representative sample from around the country. Data collection from the NGOs is in progress after initial meetings and focus group discussions that led to the identification of key themes for further investigation.

According to the PI, ‘The challenge, though, is getting insights from the government, which is invaluable considering government’s expected dominant role in safe guiding the lives/livelihoods of the internally displaced persons. Plans are in place to achieve this objective with the appropriate budget as initially planned. In-dept analysis based on triangulation of data from the four data sets would enhance the validity, credibility, and generalization of the research.’

‘There is optimism that ELIED will achieve its aims/objectives with desirable outcomes that would have a huge academic/research and practical impact on sustainable livelihoods/development in Cameroon’ Dr Bang concludes.

The panel Chair suggested that at least two more projects with a high impact have to be mentioned in this short blog post – ‘Aftershock Nepal’ project and the MAAR (Media Action Against Rape) project addressing rape prevention in India. Both projects are led by Professor Einar Thorsen and Dr Chindu Sreedharan. It’s important to mention that the latter led to follow-on joint initiatives.

Future of GCRF funding

UK universities have received formal notifications from UKRI and Research England that there will be no further QR GCRF funding after July 2021. So, for the remaining period we need to ensure that the projects are successfully completed by the end of this financial year. Another important task will be reporting back to Research England in autumn.

The next post, coming up tomorrow, will be about the ACORN internal funding panel.

COVID – a reflective account, an engineering perspective.

There have always been challenges and opportunities. Some might say that challenges could be over and an opportunity could be lost, really?

There are several key subjects in mechanical engineering, majority attempt to bridge the gap between theory and practice and simultaneously present a simplified solution such as engineering maths, machine design, theory of machines and power plants etc. there are two core subjects which are more challenging in terms of the nature of problems we are asked to solve – such as thermodynamics and thermofluids which in turn are multidisciplinary  subjects and do incorporate elements of functional analysis, linear and nonlinear relationships, physics, energy and flow.

Mechanical engineering itself is an interdisciplinary subject which is underpinned by mathematics and physics. To simplify physical analyses, like the recent landfall in Dorset, although it is a geological event, lets for the time being ignore this element. Two categories, in physics have been defined in terms of whether a body is in motion or at rest, are referred to as dynamics and statics. There is a major mechanism which is called erosion, just before the landfall, the state is static, during the landfall the state is dynamic. Let’s consider, if a body is in motion and there is an element of power, not the power we associate with the words like, politics or megalomaniac, but say heat energy, for example recent Icelandic volcanic eruption, although generally speaking this would fall under volcanology, let’s assume we are not discussing this, there is an element of heat energy in motion which is called thermodynamics.

If we have understood what thermodynamics is, then let’s move to statics. Anything in stationary state, not moving, will come under statics. A coffee table in our lounge, a parked car, a bookshelf etc. in turn the analysis is relatively easy and simple. Are these stationary? is the motion zero? think again.

We talk about destination(s). What is ‘the destination’?

Locally (lounge, car park, library /study) the motion is zero, and we have a zero value. Globally the motion is not zero as the earth is spinning and orbiting. Therefore, universal motion cannot be zero. In turn there is no absolute zero.

Fridge and freezer in our kitchens run on a thermodynamic cycle, there are four distinct processes in a thermodynamic cycle: compression in the compressor, evaporation in the evaporator, condensation in the condenser and expansion in the throttle (expansion) valve. We keep our food and drinks cold in the fridge or food frozen in the freezer. Although in terms of the objective, a lower and controlled temperature is desired, is it destination? thermodynamic cycle is composed of processes and there is no final stage, unless the fridge or freezer stop working. Initial point of a process is connected to the final point of preceding process, and final point of a process is connected to the initial point of proceeding process – all processes are interconnected, it is a ‘cycle’ where is the destination? in turn a destination would mean no motion, static, this is not desired.

What happens after the destination?

We have sources of energy, finite (fossil fuel) to infinite (sun). The energy which is responsible for making chemical reactions happen is called Gibbs Free Energy (GFE). When GFE runs out chemical reactions will cease to occur. For example, by pouring hot water, providing energy, on washing soda, a reaction will happen, a good old recipe to unclog drains. The reaction will stop when that energy runs out.

All sources of energy lead to thermodynamics behaviour which is called Entropy. Let’s take a carboard box, put a few green tennis balls on one side, and a few red tennis balls on the other side, this is a state of order. Now shake the box, green and red balls will mix – this is a state of disorder, if heat energy was involved in this process, then this was Entropy. For example, climate change, rising sea levels, volcanic eruptions and landfalls are all examples of Entropy.

We know that there is no absolute zero, therefore the Entropy has to increase or at its best remain constant, but only locally, for example the landfall in Dorset may not be happening now, it does not mean that erosion elsewhere is not taking place, rising sea level is not the same everywhere. Entropy must increase or could remain constant – disorder must increase or could remain constant.

Let’s go back to March 2020. I was getting out of our staff kitchen on my office floor with a cup of coffee, a work colleague was coming from the opposite side. My colleague told me that, they are planning to go to superstore for shopping to stockpile provisions and utilities. To justify this, my colleague added, we would go to lockdown soon following France.

Lockdown? is it static or dynamic? is it increasing or keeping the Entropy constant?

Stockpile? is it static or dynamic? is it increasing or keeping the Entropy constant?

Soon the Government issued a statement that “people ‘must’ stay at home and certain businesses must close”. A state of zero Entropy?

Wait a minute, do you recall if anyone mentioned anything about flatulence, diarrhoea or indigestion etc, remember stockpiling toilet rolls?

There are economic and psychological aspects to this, “In Auckland, New Zealand, supermarket spending shot up by 40% comparing to the same day the previous year”.

It is rational to prepare for something bad that looks like it is likely to occur,” says David Savage, associate professor of behavioural and microeconomics.

Ben Oppenheim, senior director at San Francisco-based infectious disease research firm Metabiota, agrees. “It’s probably true that panic buying is ultimately a psychological mechanism to deal with our fear and uncertainty; a way to assert some control over the situation by taking an action.”

Physical disorder continued, “Evidence to the Commons EFRA Committee from the British Retail Consortium stated that the main difficulty in meeting the rapid increase in retail demand was the logistics of moving food through the supply chain quickly enough, with deliveries to stores increasing by 30%.” [Source]. “News of empty supermarket shelves and other disruptions in the food supply chain in countries already affected by COVID-19 influenced UK consumer behaviour and led to relatively short lived ‘stock piling’ buying behaviour to prepare for a worst case scenario.” [Source].

A state of lockdown meant zero Entropy, carbon emissions fall down by more than a third, should it continue, there is a chance of Entropy is going in the reverse direction, thermodynamically it is not possible. Stockpiling added to Entropy.

When the lockdown was eased, eat out to help out, we went to several local restaurants to make our contributions to local economy.

We also went to Stonehenge, it was a gorgeous day and outdoor coffee was a bonus, what? Stonehenge is static, I am a dynamist.

When will the Entropy stop and what would the scenario look like?

There is always a gradient therefore change in pressures and temperatures, flow of water, heat flow: boiling or freezing water will continue to take place. No flow means equilibrium, it is a local phenomenon, a lake. And for example, mechanical equilibrium, a seesaw should be dynamic (interesting) when both persons on either end change their loading configuration, seesaw will move up and down. If the load (person on each side) is equal then seesaw would not move, it is static, it is local equilibrium (limited to seesaw), it doesn’t mean that temperature is not changing or the tides are not going out or coming in. I did not stockpile anything because the flow must happen. Stockpiling meant excessive gradient, must be followed by accelerated supply and production – increased Entropy.

Destination is static; the uncertainty associated with destination distracts from the process, the journey. The destination is a state of absolute zero, I will let you interpret this. Challenges will not go away and opportunities will never be lost – absolute zero cannot be reached, Entropy will always increase or if we are very lucky then it could remain constant. Globally Entropy must increase, journey must continue, challenges will be there and opportunities will cross our path.

Each end of a process is a destination, but that is also the final point of a process, so the process hence the journey must continue to connect to the next initial point of another process in the cycle. Presence in the process and enjoying the journey will lead to impactful outcomes.

COVID is just a process within a cycle, and we are on its final point.

IMSET Seminar: Understanding coastal change

Thursday 18 March at 4pm 

Understanding coastal change: impact and implications global to local scales with Dr Sally Brown, Bournemouth University  

Coastal zones are under multiple threats of natural and anthropogenic change. The impact of these threats are anticipated to worsen with climate change and the effects of sea-level rise. In this presentation, Sally will highlight different elements of her research, including how physical processes and socio-economic change vary throughout time, and demonstrate methods and solutions to adapt to these changes. Examples will be taken from global, regional and local scales from areas that Sally has worked on around the world. 

Sally is a coastal and climate change adaptation scientist. She joined BU in 2018, and as all but six weeks of her time at BU has been part-time or working from home, she is keen to integrate more and work with others in research at BU. Find out more about Sally’s research.