Since the project’s start in 2019, the team of EnerSHelF has been working on both technical and politico-economic questions to improve and disseminate marketable PV-based energy solutions for health facilities in Ghana. In March 2023, the project comes to an end, and we want to share our results and insights to stakeholders in the public and private sphere in our online symposium on
14th February 2023 10:00-15:00 CET.
Each individual work package will unfold their research with input from both our Ghanaian and German partners. The results are of interest to a broad audience, including researchers, private sector organisation, public authorities as well as international donor organisations working on either the expansion of Solar PV or on enhancing health services in Ghana and beyond. The registration link will direct you to the online registration via Webex where the symposium will be hosted.
Samer Chaaraoui from the University of Applied Sciences Bonn-Rhein-Sieg is analyzing load data from the field sites of the EnerSHelF project. By analyzing the data, he can identify when and where electricity is used and what indication it has for planning PV-diesel hybrid systems for health facilities. In this article, he is given an insight into the identified load profiles and what they reveal. To ensure confidentiality, the load profiles have been anonymized.
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.
In late March, Rone Yousif from University of Applied Sciences Bonn-Rhein-Sieg travelled to Ghana to check and maintain the measurement instruments and solar setup. He was accompanied by Mohammed Abass from WestfalenWIND. Over the course of three weeks, they travelled to the three pilot sites and met with the Ghanian project partners. The following blogpost highlights the different steps of their journey to give the reader an understanding of the practical work in the field.
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 2019, 770 million people were without access to electricity globally. They are left without the possibility of using electric light at night, powering refrigerators and stoves, or charging their phones and other devices. Until 2019, the number constantly decreased but the Covid-19 pandemic reversed the trend. In its World Energy Outlook 2021 report, the International Energy Agency (IEA) predicts that between 2019 and 2021 the global number of people without access to electricity stuck at its pre-crisis level – after seeing improvements by around 9% annually since 2015. In Sub-Saharan Africa (SSA), for the first time since 2013, the numbers are likely to have even increased in 2020.
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.
Interview with Dr. Windmanadga Sawadogo from University of Augsburg. He talks about his recent trip to the EnerSHelF field sites and about processing the collected meteorological data.
You are working in WP 3.2, focusing on high-resolution meteorological forecasts for Ghana. Can you explain how your work contributes to the overall aim of the EnerSHelF project to improve and disseminate marketable PV-based energy solutions for health facilities in Ghana?
The work of the University Augsburg is to produce weather forecasts for the three pilot sites and to spread the data to different partners in the project. For this, I am working closely with Samer Chaaraoui from the University of Applied Sciences Bonn-Rhein-Sieg (H-BRS), as he needs the forecasting data to improve the accuracy of his models for photovoltaic-hybrid systems. Currently, we are at the stage where everything is ready, and we are running the forecasts for the three sites every day. The collected data are kept at our servers at the KIT campus at Garmisch-Partenkirchen while we are waiting for the FTP (File Transfer Protocol) from our partner WASCAL (West African Science Service Centre on Climate Change and Adapted Land Use) to upload the data so that everyone can easily access the data.
The EnerSHelF project is supported by the German Federal Ministry of Education and Research (BMBF). Its’ funding measure “CLIENT II – International Partnerships for Sustainable Innovation” finances 64 projects that spread across 32 countries – one of them being EnerSHelF. All of them are working on solutions for climate, energy, environmental, and resource challenges that occur in the partner countries. To foster the exchange between the various projects, the second Client II conference of the funding period took place in the last week of October. It was organised as a hybrid event with project’s being able to join from anywhere in the world but also meet in person at the event’s venue “Umweltforum”, Berlin.
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.