Within work package 4, Jonas Bauhof from the University of Applied Sciences Bonn-Rhein-Sieg is analysing the interdisciplinary cooperation and exchange of the different work packages involved in the project.
What is your role in the EnerSHelF project?
As a distinct feature of the EnerSHelF project, besides the disciplinary work of the technical, natural, and social sciences, we are also aiming to understand processes of cooperation between the different disciplines in such an interdisciplinary research setting. My role is to identify the areas of cooperation and possible barriers and enablers of interdisciplinary research. These “lessons-learned” can be beneficial for future projects with a similar set-up.
Since the last time, we continued to gain insights from our geospatial data by analysing it together with newer, more up-to-date datasets. We have now, for example, a better understanding of the number of hospitals more likely to need electrification, the types and sizes of communities that surround our hospitals, and the population that would be covered by their services. We have been compiling and processing these data, picking attributes and information from them that we think will be more relevant for our final visualization. For this, during the past months we have been thinking of and working on a concept for the development of a web map tool that should display not only the already mentioned datasets, but also our electrification strategy, in a clear and meaningful way.
The last time we spoke, you were at the planning stage of your data collection in Ghana. Can you state again, what it is you are trying to find out with your research?
As explained in our last interview, work package 1.1 deals with the political economy of sustainable energy transition in the Ghana Health and Energy sectors. Specifically, we seek to the analyse the factors that influence institutional or policy change towards clean energy transitions in Ghana with specific emphasis on solar PVs.
How is your data collection proceeding?
So far, the first round of data collection has been concluded. After experiencing some difficulties during the initial stages due in part to the global Covid-19 pandemic, we managed to successfully conduct 19 qualitative interviews with key stakeholders at the national level in Ghana. The categories or groups of stakeholders interviewed included the following: Health and energy policy makers, sector regulators, donor institutions and international agents, NGOs and civil society groups within the health and energy space, and finally independent experts. A follow up or mopping up round for a few stakeholders interviewed is planned for June 2022.
Interview with Jonas Bauhof and Susanne von Itter from EADI on the role of communication work for research projects.
EADI is the knowledge and network partner for the EnerSHelF project. Can you explain to us, what is entailed in this role?
We are responsible of disseminating the project’s research results both to our stakeholders but also the public. For this, we use different forms of communication and are also involved in planning network events and managing the website. By doing so, we aim to enhance the uptake of research results among relevant stakeholders in academia and beyond. It is essential to increase the real-world impact of the EnerSHelF project – also past its funding period. As the leading European network in the field of development studies, EADI can use its network to reach out to relevant outputs and institutions. This helps us to reach out to a broad set of actors in the field.
In this interview, Paul David Bohn from Cologne University of Applied Sciences talks about his role in the EnerSHelF project. He continues the work of Silvan Rummeny on an advisor and planning tool for Photovoltaic-diesel-hybrid systems.
In autumn 2021, you took over the role of Silvan Rummeny, who was working in work package 3.3. Can you tell us what his – and now your – work entails?
The main subject of work package 3.3. is the development of an advisor and planning tool for micro grids. The acronym for this tool is Micro Grid User Energy Planning TooL (MiGUEL). MiGUEL is used to design, simulate and evaluate Photovoltaic (PV)-diesel-hybrid systems for Ghanaian health facilities. The goal is to provide users with suitable solutions on how to design a cost-effective micro grid, contributing to fulfil the sustainable development goals and affiliated roadmaps. The target groups are project developers, engineering companies, and private as well as public grid operators who want to implement micro or mini grids. Silvan Rummeny started designing MiGUEL and I took over the development since he left EnerSHelF.
In September, Prof. Katja Bender and Prof. Stefanie Meilinger – project leaders of EnerSHelF – talked with the Bonn Sustainability Portal about the project. You can now read the English version below.
Dear Prof. Bender, dear Prof. Meilinger, you are both coordinating the project “Energy Self-Sufficiency for Health Facilities in Ghana” – EnerSHelF – at Hochschule Bonn-Rhein-Sieg. What are the goals of the project?
In Ghana, like in many developing countries and emerging market economies, blackouts are a common phenomenon. This is critical – especially for health facilities – as the care for patients relies on a reliable energy supply. Without electricity, operations and other procedures are not possible during the night, important instruments are malfunctioning, or the cooling circle of life-saving vaccines and medications are disrupted.
In this interview, Silvan Rummeny from Cologne University of Applied Sciences highlights the development of the advisor and planning tool MiGUEL. It is an open-source-based library which is developed within the EnerSHelF project and later made available online.
You are involved in the EnerSHelF project within work package 3.3a. Can you tell us about your role in the project and the goal of your work package?
On the one hand, our role in the EnerSHelF project is to improve the knowledge of load data of Ghanaian hospitals. On the other hand, we aim to improve the implementability of micro grid projects in the Ghanaian health sector by developing an advisor and planning tool for such micro grids. The tool can be used to design and evaluate Photovoltaic (PV)-diesel-hybrid systems for Ghanaian health facilities. Our goal is to provide users with suitable solutions on how to change the microgrid design and with which planning strategy they can achieve their micro grid development goals and roadmaps in the most cost-effective way. The target groups are project developers, engineering companies, and private as well as public grid operators who want to implement micro or mini grids.
Interview with Matthias Bebber from University of Applied Sciences Bonn-Rhein-Sieg (H-BRS)
While working for the EnerSHelF project, you are still enrolled as a student at H-BRS. Can you tell us a bit more about your academic background?
In 2015, I started studying mechanical engineering with a focus on mechatronics at the University of Applied Sciences Bonn-Rhein-Sieg (H-BRS). After completing my bachelor’s degree in 2019, I continued my studies with a master’s degree at H-BRS. I am currently preparing for my master’s thesis.
Your master’s thesis project will be published within the IZNE Working Paper Series. What is it about?
During my master’s project, I created a model of a photovoltaic (PV)-diesel-hybrid system, which has an additional battery storage system and is connected to the public power grid. With the help of this model and data of a hospital in Akwatia, Ghana, we investigated different influences on the system. For instance, we studied the impact of the different seasons – such as rainy season, dry season and the harmattan (characterized by a dry and dusty north-easterly wind) – on the PV yield and therefore on the system. In addition, we looked at how the power outages that occur commonly in this region would affect such a system.
Interview with Rone Yousif from University of Applied Sciences Bonn-Rhein-Sieg. He is supervising the measurement concept at the three pilot sites of the EnerSHelF project in Ghana.
You recently joined the EnerSHelF project under work package 3.0. Can you tell a bit about your professional background and your experience in working with renewable energy?
I am very pleased that the University of Applied Sciences Bonn-Rhein-Sieg (H-BRS) gave me the opportunity to actively contribute to the project. In 2013 I decided to study mechanical engineering as I am very technically oriented. As part of my master’s degree, I focused on solar power and I have dealt with issues of energy meteorology. My master’s thesis investigated the influence of aerosols and clouds on photovoltaics (PV). It was fascinating to see how dust outbreaks in Ghana affect the PV performance but also to face the challenges that occur in the energy sector.
Interview with Mohammed Abass from WestfalenWIND. He talks about his role in the EnerSHelF project and the challenges they faced when setting up a Photovoltaic-hybrid system at the pilot site at Kologo.
You recently joined the EnerSHelF project through its industry partner WestfalenWIND. Can you tell a bit about your professional background and role within the project?
I completed my B.Sc. in Physics at Kwame Nkrumah University of Science and Technology (KNUST), Ghana, in 2012. In 2014, I came to Germany to do my master’s degree at University of Duisburg-Essen and now hold a M.Sc. in Mechanical Engineering. My studies were based within the internationally oriented study program International Studies in Engineering (ISE) and I specialized in energy and environmental engineering.
My role within the EnerSHelF project is to assist in setting up a photovoltaic (PV)-hybrid system at the pilot site in Kologo, Ghana. Additionally, I help to promote user acceptance of PV systems as well as its optimal usage. That also entails to enhance the understanding of sustainable electricity generation across the community. I think that if you want to bring new things to places or people, it is important to create the right access. Encouragingly, I noticed that the acceptance for PV systems in Kologo is already very high. Another part of my role within the project is the documentation of the process of setting up the PV-hybrid system in Kologo.