Catalysing energy access in Africa through smarter energy storage management

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Title
Catalysing energy access in Africa through smarter energy storage management

CoPED ID
bf795909-6f5e-4daf-9116-57dc8acea875

Status
Closed

Funders

Value
£196,898

Start Date
March 31, 2018

End Date
March 31, 2019

Description

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This project enables the remote, automated management of distributed off-grid batteries powering solar home systems throughout sub-Saharan Africa. The research has two objectives: to examine solar home system (SHS) usage data to design smarter appliances for off-grid customers; and to optimise lithium ion battery (LIB) lifetime. M-KOPA collects daily usage data from >500,000 households in sub-Saharan Africa (SSA), however, there is a gap in effective use of the data for product management and design excellence. Using data science tools and machine learning algorithms, M-KOPA will develop approaches to maximise product battery life, and design smarter appliances. These tools will decrease the premature LIB failure rate (one of M-KOPA's greatest challenges). Oxford University will design battery failure prediction algorithms to increase the longevity, effectiveness, and reliability of future LIBs for off-grid customers. Thus, this project targets all three aspects of the energy trilemma: reducing emissions through increased life of LIBs in SSA, cost savings through optimal product design, and security of energy supply from more reliable SHS.


More Information

Potential Impact:
The off-grid population in sub-Saharan Africa spent approximatively US$14.4 billion on lighting supplied by candles, kerosene and battery-powered flashlights in 2014 (Bloomberg New Energy Finance, UNEP, World Bank). All these sources represent significant damage to the environment and the health of the people exposed to them. M-KOPA is in the final stages of Gold Standard accreditation for carbon offsetting with the offsetting amount being 0.75 tons of carbon through the life of each device (ie, 375,000 tons to date).

It has been estimated that consumers save on average US$3.15 for every dollar spent on pico-solar in Africa (Bloomberg New Energy Finance). Access to adequate energy supplies and economic growth are interlinked. Having access to solar lighting is the first step on the energy access ladder.

However in order to truly benefit from the socio-economic impacts of access to electricity (such as increase health, education, productivity and leisure), it is fundamental to be able to deliver low cost appliances (Global Leap 2016). Mainstream appliances consume too much power to be cost-effectively delivered with a SHS. Therefore, the outputs of this project will contribute to financing and designing smarter, more energy efficient DC appliances (such as TVs, fans, radios, and fridges) for consumers by M-KOPA. Also, by increasing battery lifetime and hence reducing system costs, prices for SHS will be further reduced.

Customers who obtain these SHSs and appliances report more time spent studying by their children, increased incomes from micro/small enterprise activities, savings in expenditure on lighting, cooking, phone charging, travel, and other daily expenditures that are better invested in more productive activities.

In terms of environmental impact, a study has recently shown that kerosene lighting is responsible for 240 million tonnes of annual CO2 emissions (Lighting Global 2014) - equivalent to half of the UK GHG emissions per year (BEIS 2017). Enabling further penetration of M-KOPA's SHSs will contribute to the reduction of these emissions.
Additionally the replacement of traditional diesel back-up generators adopted by customers on the grid by solar systems with storage would contribute further to reduction of GHG. Finally there are other innovative solar based solutions that can also be explored such as solar powered food driers and irrigation pumps.

David Howey PI_PER

Subjects by relevance
  1. Solar energy
  2. Emissions
  3. Sustainable development
  4. Energy saving
  5. Africa
  6. Costs
  7. Households (organisations)
  8. Decrease (active)
  9. Remote management
  10. Energy efficiency
  11. Accumulators
  12. Planning and design
  13. Environmental effects
  14. Energy consumption (energy technology)
  15. Optimisation
  16. Machine learning

Extracted key phrases
  1. Smart energy storage management
  2. Energy access ladder
  3. Energy efficient DC appliance
  4. Adequate energy supply
  5. Energy trilemma
  6. Solar home system
  7. Saharan Africa
  8. Smart appliance
  9. Product battery life
  10. Grid battery
  11. Solar system
  12. Product management
  13. Battery failure prediction algorithm
  14. Optimal product design
  15. Solar lighting

Related Pages

UKRI project entry

UK Project Locations