How AI can be leveraged to power Africa’s sustainable energy systems

The evolution of energy production and consumption has undergone significant transformations over the decades, particularly in the context of Africa, where energy poverty remains a formidable challenge. This policy brief discusses how AI can be leveraged to  Africa’s power future.

By Evans Rubara*, Guest Expert, Governance and Economic Policy Centre

Featured image: Africa Energy portal, AfdB

Historically, the continent has grappled with inadequate infrastructure, unreliable power supply, and reliance on traditional biomass, hindering socio-economic development. As the global narrative shifts towards sustainability, the advent of power-to-energy technologies offers a promising solution. These innovative systems can convert surplus renewable energy into storable forms, such as hydrogen, potentially revolutionizing energy access in Africa. This article explores the intersection of Artificial Intelligence (AI) in powering energy and the unique socio-economic landscape of the continent, highlighting both the opportunities and challenges that lie ahead.

Understanding Energy Poverty in Africa

Energy poverty is defined as the lack of access to reliable, affordable, and sustainable energy services, which severely impacts individuals’ quality of life and economic opportunities. Energy poverty is a critical issue that affects millions across the African continent. According to the International Energy Agency (IEA, 2021), about 600 million people in Africa lack access to electricity, which accounts for nearly 46% of the population. This problem is especially severe in rural areas, where the lack of electricity can reach up to 80%. Even in regions with electrical infrastructure, power outages are common, forcing many families to rely on traditional biomass for cooking and heating. This reliance poses significant health risks and contributes to environmental degradation.

The consequences of energy poverty extend beyond mere inconvenience; they stifle economic growth, limit educational opportunities, and exacerbate health issues.

Without reliable power, businesses struggle to thrive, and families often resort to expensive and unhealthy alternatives. The World Bank (2020) estimates that the lack of access to electricity costs African countries around $5 billion annually in lost productivity. Therefore, addressing energy poverty is not only a moral imperative but also essential for broader socio-economic development across the continent.

The Role of Power-to-Energy Systems

Power-to-energy systems can play a crucial role in alleviating energy poverty in Africa. These technologies convert excess electricity into storable and transportable forms of energy, helping to manage the intermittent nature of renewable energy sources like solar and wind. In regions where energy production fluctuates seasonally, power-to-energy systems can provide a buffer, ensuring a more consistent energy supply.

For example, during sunny days, solar panels can generate surplus electricity that can be converted into hydrogen through a process known as electrolysis. This hydrogen can then be stored and used later for electricity generation or as fuel for transportation. Such flexibility allows energy supply to align more closely with demand, which is vital in areas where consumption patterns can be unpredictable.

The African Continental AI Strategy

 Artificial intelligence (AI) is technology that allows machines to simulate human intelligence and cognitive capabilities. AI can be used to help make decisions, solve problems and perform tasks that are normally accomplished by humans[1].

The African Continental AI Strategy is an initiative by the African Union aimed at leveraging artificial intelligence (AI) for socio-economic development across the continent. This strategy recognizes the transformative potential of AI (African Union, 2019) and seeks to address critical challenges in sectors such as healthcare, agriculture, education, and energy. By encouraging collaboration among member states and investing in AI research and infrastructure, the strategy aims to position Africa as a competitive player in the global AI landscape.

One of the key implications of this strategy is its potential to enhance the integration of power-to-energy systems. With nearly 600 million people affected by energy poverty, the incorporation of AI into energy systems can optimize the generation, distribution, and consumption of energy.

Power-to-energy technologies, which convert surplus renewable energy into storable forms like hydrogen, can benefit from AI-driven analytics that manage energy flow, predict demand, and improve efficiency.

Additionally, the strategy emphasizes the importance of building local capacities and skills. Investing in education and training will enable African nations to develop a workforce proficient in AI applications specific to the energy sector, ensuring that innovations are tailored to local contexts. The strategy also promotes ethical AI use, which aligns with the need for transparent and responsible implementation of technologies that impact communities and the environment.

Advantages of Power-to-Energy Systems in Africa

Power-to-energy systems offer several advantages for Africa. They can increase energy security by diversifying energy sources and enabling local fuel production, reducing reliance on imported fossil fuels. This diversification is particularly important for many African countries that are vulnerable to fluctuations in global energy prices.

These systems also create jobs. Establishing power-to-energy facilities can generate employment in construction, operation, and maintenance, thereby supporting local economies and fostering skills development. Furthermore, power-to-energy technologies facilitate the integration of renewable energy into the grid, which is essential for transitioning to a low-carbon economy. By maximizing the use of local renewable resources, countries can enhance their energy independence.

Moreover, these systems have environmental benefits. By decreasing reliance on fossil fuels and promoting cleaner energy sources, power-to-energy systems can help reduce greenhouse gas emissions, contribute to global climate goals, and improve local air quality.

Challenges and Considerations

Despite their potential, adopting power-to-energy systems in Africa is not without challenges. One major barrier is the initial investment required for these technologies. Many African nations operate with limited budgets, and the high upfront costs of establishing power-to-energy facilities can deter investment. Additionally, the absence of existing infrastructure for energy storage and distribution presents significant logistical hurdles.

The regulatory environment poses another challenge. In many African countries, energy policies are still evolving, and the lack of clear regulations can create uncertainty for investors, hindering the deployment of new technologies. Comprehensive energy policies are urgently needed to support innovation while ensuring equitable access to energy resources.

There is also the risk of creating energy inequities. If access to power-to-energy technologies is limited to urban areas or wealthier populations, rural communities may be left behind, exacerbating existing disparities. Prioritizing inclusive energy strategies is crucial to ensuring that all populations benefit from new technologies.

Power Security Issues

Transitioning to power-to-energy systems carries specific risks, particularly concerning power security. Key issues include the reliability of renewable sources, which can lead to vulnerabilities during periods of low production. For instance, solar energy generation drops significantly at night and can be affected by weather conditions. If not managed properly, power-to-energy systems could lead to an over-reliance on stored energy, compromising supply during peak demand.

Cybersecurity risks are also a significant concern. As energy systems become more interconnected and dependent on digital technologies, the threat of cyberattacks increases. Many developing nations may lack the resources and expertise to secure their energy infrastructure, making them vulnerable to disruptions that could have far-reaching economic consequences.

Furthermore, infrastructure vulnerabilities can exacerbate the challenges faced by power-to-energy systems. The physical infrastructure required, such as storage facilities and distribution networks, may be underdeveloped in many regions. Natural disasters or political instability could further disrupt energy supply.

Market volatility is another issue. As power-to-energy technologies expand, the markets for energy carriers such as hydrogen may become more unstable, creating uncertainty for investors and consumers alike.

Power-to-Energy AI and Cybersecurity

Cybersecurity threats to power-to-energy systems in Africa are complex (Cybersecurity Africa, 2021) and can pose significant risks to the stability and reliability of energy infrastructure. The increased digital interconnectivity of these systems creates vulnerabilities that can be exploited by cybercriminals. If not adequately secured, power-to-energy systems may become targets for attacks that could disrupt energy supply or compromise sensitive data.

Many African countries are still in the process of developing their cybersecurity frameworks. Existing measures may be insufficient to protect critical energy infrastructure, making power-to-energy systems more susceptible to attacks. Cyberattacks on these systems can have severe consequences, including power outages, economic disruptions, and threats to public safety.

Insider threats also pose significant risks. Employees or contractors with access to power-to-energy systems can unintentionally compromise security protocols or act maliciously. Additionally, ransomware attacks are increasingly common in various sectors, including energy, where cybercriminals can encrypt critical data and demand ransom for its release.

Moreover, the vast amounts of data generated by power-to-energy systems for operational efficiency and decision-making are at risk. Cyberattacks could compromise the integrity of this data, leading to incorrect operational decisions, inefficient energy distribution, or even equipment damage.

Enhancing Power-to-Energy AI Systems Cybersecurity

Public-private partnerships (PPPs) are vital for strengthening cybersecurity efforts in the energy sector. These collaborations leverage the strengths of both sectors to create robust cybersecurity frameworks. By facilitating resource sharing and expertise, public and private entities can collaborate on threat intelligence and capacity building, enhancing situational awareness and effective incident response.

In the event of a cyber incident, PPPs can form coordinated response teams, ensuring a rapid and effective response to minimize damage and restore services. Joint initiatives in policy development can lead to the creation of cybersecurity standards that apply across sectors, providing a consistent framework for protecting critical infrastructure.

Investment in cybersecurity infrastructure can also be bolstered through PPPs. By mobilizing resources and sharing responsibilities for security measures, both sectors can contribute to the overall security landscape. Public awareness campaigns and training programs can educate stakeholders about cybersecurity risks, fostering a supportive environment for investment.

Research and development efforts can drive innovation in cybersecurity technologies, while regulatory compliance guidance can help ensure that regulations are met without imposing undue burdens on businesses. Continuous improvement through collaboration will allow both public and private entities to assess and adapt their cybersecurity measures to the evolving threat landscape.

Incentivizing Power-to-Energy Investments in Africa

A comprehensive set of policies addressing financial, regulatory, and infrastructural challenges is essential to encourage power-to-energy investments in Africa, Financial incentives, such as tax breaks or subsidies for companies investing in power-to-energy technologies, can make projects more financially viable. Establishing government-backed loan programs with favourable terms can also support businesses and communities looking to invest in power-to-energy infrastructure.

Clear regulatory frameworks outlining the permitting process and compliance requirements for power-to-energy projects can build investor confidence. Streamlined permitting processes will reduce bureaucratic delays, while technical standards ensure safety and reliability.

Investment in grid infrastructure is crucial for accommodating new power-to-energy projects. Additionally, fostering public-private partnerships can share risks and resources in developing these projects. Creating targeted support for rural areas, such as funding for projects that enhance energy access, will also be important.

International cooperation is vital for engaging with global funding sources and facilitating knowledge sharing with countries that have successfully implemented power-to-energy technologies. Establishing innovation hubs focused on renewable energy and power-to-energy technologies will encourage research and development, paving the way for new solutions and business models.

Strong regional economic cooperation can be a strong driver. While power-to-energy systems present significant opportunities for addressing energy poverty in Africa, careful planning, investment, and collaboration are essential to navigate the challenges. Regional Economic Communities (RECs) have the potential to play a pivotal role in addressing energy poverty. For instance, the Southern African Development Community (SADC, 2019) has launched initiatives to enhance energy access through the Southern African Power Pool (SAPP), which aims to optimize energy generation and distribution. Similarly, the East Africa power pool have all suggested the imperative for cooperation. However, the implementation of these has remained at snail pace and thus missing out on the potential dividends of a regionally integrated power and energy system

Addressing energy poverty is essential for improving livelihoods and fostering economic resilience in Africa. Collaborative efforts among RECs, governments, and international organizations are crucial to overcoming the challenges posed by energy poverty (World Bank, 2020). By fostering an inclusive approach that emphasizes capacity building and innovation, Africa can harness the potential of these technologies to create a sustainable and equitable energy future.

*Evans Rubara is an experienced Natural Resource Management specialist with a deep focus on extractive geopolitics, environmental politics and Sustainability. He can be reached through evans@africatranscribe.co.tz.

Further Reading

  • African Union. (2019). African Continental AI Strategy.
  • Cybersecurity Africa. (2021). Cybersecurity Threats in Energy Systems.
  • Government of Kenya. (2020). National Cybersecurity Strategy.
  • (2021). World Energy Outlook.
  • (2019). National Cybersecurity Policy.
  • Rwanda Government. (2020). National Cybersecurity Policy.
  • (2019). Southern African Power Pool Initiatives.
  • South African Government. (2020). Cybersecurity Policy Framework.
  • World Bank. (2020). The Impact of Energy Poverty on Economic Development.

[1] https://builtin.com/artificial-intelligence

Understanding of Thermal power, opportunities and limitations for power generation in East Africa.

 

In this brief we focus on geothermal as source of energy, shading some perspectives on what it is, the potential and why it may be an attractive source of energy but also point out the downside factors that may limit its exploitation in East Africa.

By  Moses Kulaba, Governance and Economic Policy Centre

Globally, there is an increasing focus on mitigating climate change by gradually transiting to clean energy sources. With its location along the equator and various volcanic plates, Africa is considered as a sleeping giant of renewable energy sources. Despite this abundancy, Africa lags behind in energy access and investment in renewables generally. If deliberate efforts are not taken, Africa will remain perpetually in Energy poverty. The disparity in East Africa is even worse, with countries facing significant energy shortages and a very small investments in Geothermal power.

According to scientists, geothermal energy is largely heat flowing from the core of the earth’s crust to the top surface, which is trapped and transformed into energy.

The Earth is generally a block of solid rock and molten surfaces. At about 3000km deep into the earth there is a transition from solid rock to an inner molten core comprising of liquid iron, nickel and a mixture of other substances.  The amount of heat within 10,000 meters of the earth’s surface contains 50,000 times more energy than all the oil and natural gas resources in the world.

At this depth, the temperatures raise up to around 5700 Kelvins, which is almost the same on the sun.  These temperatures ordinary do not reach to the surface of the earth because the solid rock between the earth’s surface and its molten core are heat conductors. 

However, the molten rock can escape to the earth surface through an eruption and the heat can reach the earth surface through fissures or cracks. This is trapped and harnessed to generate power as illustrated below:

Where does the heat come from?

Geothermal comes from the Greek word, where ‘Geo’ refers to Earth, and ‘Therme’ refers to Heat. The heat comes from beneath the earth’s crust. Generally, it is found distantly far below the earth’s burning molten rock ‘Magma’ and stored in the rocks and vapour in the earth’s centre. The heat comes from two major sources.

  1. Residual heat, which is heat left over largely when the earth formed during the gravitation aggregation phase when the solar system formed. Small bodied such as asteroids which existed before and collided to form the earth and cooled still exits and emit the heat from their bodies
  2. Decay process of radioactive elements in the earth’s mantle. It is estimated that since the earth formed over 4.5billion years ago, there are significant radio active materials, largely radium, radioactive potassium and others in tiny quantities but the decay of these generated enough materials to keep the earth warm

Geothermal energy resource at the surface is therefore the rate of heat flowing through the earth’s surface at any given location.

The rate of this heat flow is to surface is highly variable and depends on the local geological settings and on the types of rocks directly beneath the surface at any given location.

The heat generated from the earth’s surface is measured in the same way as we measure solar energy (Watts per Meter Square). The hottest points on the earth’s surface are ironically the deep ocean basins where magma is always welling up and creating an undersea chain of volcanic mountains.

These actually create new crusts in the ocean basins.  Continents are relatively cool although there are hot spots on the margins such as in the North America where there are occasional heat flows with rates ranging between 20 milliwatts per square meter to 50,000 milliwatts per hour.

Key Features of Geothermal Power

The key feature of geothermal power is (electricity generation) is the rate at which temperatures increases with depth, which is the Local Geothermal gradient. i.e How far deep you have to reach the rocks that is hot enough to create steam.

An average gradient in the crust is about 25 degrees centigrade per km. i.e if you dig by 1 km deep the temperature at that point will be 25 degrees Celsius and constantly at that rate as you go deep and deeper.

The local gradient and thermal conductivity of the rocks the surface determine the local heat. In the mountain areas where the rocks are relatively recently formed the temperatures are hotter and well suited for geothermal.

Geothermal gradients are important because they determine how deep one has to dig to reach to a rock hot enough to produce steam by exposing water to the hot surface. Even in areas with low gradients, geothermal systems can be used for residential and commercial heating and cooling.

Geothermal power basics

To date geothermal power is still a very small tinny part of the overall electricity generating capacity of the world. The total geothermal capacity was approximately around 15 GW by 2018 and was projected to increase to 18 GW by 2021, compared to 600GW of solar and 400 GW of hydro. Asia had the largest installed capacity of around 4.8GW closely followed by the United States with around 3.5GW.

Types of Geothermal systems

There are largely two types of geothermal systems.  The Hydrothermal systems (Hot wet rock) and the Enhanced Geothermal Systems (EGS).

The Hydrothermal systems account for nearly all installed and commercial systems. These are systems where natural ground water or injected water is heated at a depth. It is either its natural depth or deep boreholes and circulated through an exchange system to create steam to drive a conventional steam turbine. Hydrothermal systems must have enough natural permeability of rocks to support enough water circulation without high pressure pumping or fracturing of the rocks.

The Enhanced Geothermal System (EGS) is also referred to as the dry rock system, whereby water is circulated through a hot dry rock so the rock itself is hot but doesn’t naturally have water present because it is largely impermeable.

EGS are considered quite revolutionary in the geothermal energy sector as they can be easily installed in multiple places around the world through available engineering methods. Practically, everywhere around the world it is possible to drill and reach enough depth to generate an Engineered Geothermal System.

Why it is attractive

Geothermal has the lowest carbon foot print of any energy system types and the cheapest in dollar terms per megawatt hour produced and therefore quite competitive compared to other sources. Moreover, it can operate at high capacities of around 70% capacity compared to 20% to 30% for solar and wind respectively. Geothermal systems can also easily support other associated economic activities such as tourism in the hot water springs and spurs.

East Africa’s Geothermal potential

Kenya

In East Africa  so far Kenya has the largest geothermal energy systems network located within the Rift Valley with an estimated potential of between 7,000 MW to 10,000 MW spread over 14 prospective sites.  Kenya generates at least 47% of its energy geothermal with a substantive portion of this being generated from the expansive Olkaria station in Naivasha, generating up to 800MW of Kenya’s geothermal power.

Figure 2: Olkaria Geothermal Project in Kenya, Courtesy Photo of Shutterstock

According to Kenya power, so far, the Country sources up to 91% of its energy from renewables with 47% geothermal, 30% hydro, 12% wind and 2% solar. Kenya hopes to transition fully to renewables by 2030, with KenGen saying the country has the potential to increase its capacity to as much as 10,000MW of geothermal energy.

A report by the Geothermal Energy Association noted Kenya as “one of the fasted growing geothermal markets in the world.” The country is fortunate to have great geothermal energy potential, offering a cost-effective alternative to expensive fossil fuel power. In 2017, installed geothermal capacity in Kenya stood around 660 megawatts (MW); the government has established a target of 5,000 MW by 2030[1].

With more than 14 high temperature potential sites occurring along the Rift Valley, Kenya has an estimated potential of more than 10,000 MWe. Other locations include Chyulu, Homa Hills in Nyanza, Mwananyamala at the Coast and Nyambene Ridges which have equally good potential for additional geothermal generation.

As a result, it is predicted that “Kenya will lead the world with substantial additions to their geothermal infrastructure over the next decade and become a center of geothermal technology on the African continent.”

Geothermal has numerous advantages over other sources of power. It is not affected by drought and climatic variability, has the highest availability (capacity factor) at over 95 %, is green energy with no adverse effects on the environment, and is indigenous and readily available in Kenya, unlike most thermal energy that relies on imported fuel. This makes geothermal a very suitable source for baseload electricity generation in the country[2], putting Kenya in clean energy terms, a step ahead of the others in the region.

Tanzania

Tanzania is endowed with a huge geothermal potential which has not yet been used, and has only been explored to a limited extend. According to Tanzania Geothermal Development Company Limited (TGDC), a 100% subsidiary company of Tanzania Electric Supply Company Limited (TANESCO), in 2013 Tanzania had a geothermal power potential of 650 Mw. However given its location along the East African Great rift valley system, it is likely that these figures are conservative and geothermal potential could be higher with some estimates putting it up to the range of 5000 MW.

Most of the identified geothermal resources occur in three regions: in SW Tanzania in the Rungwe volcanic field, where the project site Songwe-Ngozi, is located, in northern Tanzania at the southern end of the eastern branch of the East African Rift system and in eastern Tanzania (e.g. Rufiji Basin) along the Proterozoic mobile belt around the Tanzanian Craton.

The Deputy Prime Minister and Minister for Energy, Dr Dotto Biteko said Tanzania would start drilling by April 2024. This was to be a major first step in establishing the resource potential before starting energy production.

However, to date, very limited information is available on the progress of these projects and the actual dates when geothermal power could flow into Tanzania’s energy system are uncertain.

Geothermal power is a reliable, low-cost, environmentally friendly, alternative energy supply and an indigenous, renewable energy source, suitable for electricity generation. With an increasing demand for power amidst outages and uncertain future of the LNG gas to power projects, investment and development of geothermal, could be a major boost to Tanzania’s power needs.

Uganda

The main geothermal areas are Katwe-Kikorongo (Katwe), Buranga, Kibiro and Panyimur located in Kasese, Bundibugyo, Hoima and Pakwach districts respectively. According to available data Uganda geothermal resources are estimated at about 1,500 MW[3].  Currently, the government has ambition to develop up to 100 MW in geothermal power generation capacity in the country, as reported by Afrik21[4].

Uganda’s geothermal potential lies primarily within the western part of the country, with the most prominent prospects found in the Panyimur and Kibiro regions. Geological studies indicate that the East African Rift System, which traverses through Uganda, provides favorable conditions for geothermal reservoirs. The estimated geothermal capacity in the country is substantial, and tapping into these resources could significantly contribute to the nation’s energy mix.

The main geothermal resources of Uganda are centered around Lake Albert and Lake Edward in the districts of Kasese, Hoima, Bundibugyo and Nebbi. This area lies along the Western Branch of the East African Rift System (EARS)[5]

But despite the considered geothermal potential, challenges remain in the development and utilisation of the resources. Uganda’s geological complexity poses challenges for geothermal drilling operations. However, advancements in drilling technologies, such as slim-hole drilling and directional drilling, have the potential to overcome these obstacles. Investing in research and development specific to Ugandan conditions is considered a major factor that will improve drilling efficiency and reduce costs[6].

Obstacles to peaking of Geothermal in East Africa

Despite being the cleanest and most efficient energy source, scaling up geothermal generation in East Africa faces significant obstacles.

  1. The resources are site specific. Globally, hydrothermal systems with wet hot rocks are rare in the world and can only be found in very special locations. Similarly in East Africa these resources are located largely along the Great Rift Valley belt such as Western Uganda, Along the Rift Valley in Kenya and Tanzania
  1. Relatively long lead time of between 5-7 years from conception to production of electricity. Heavy investment in transmission and other support infrastructure due to long distances to existing load centers.
  1. High upfront investment costs. In East Africa, the initial investment costs in geothermal is still expensive compared to other forms such as hydro. According to published data indicate that installation costs range between 2.5 to 6.5 million US$ per MWe. Kenya average installation cost is about 3.6 million US$ per MWe[7]. Geothermal exploration demands money upfront – one well costs about 500 million USD[8]. With a few private investors so far, the governments have to borrow expensive loans to build geothermal power plants.
  1. High resource exploration and development risks. In East Africa there is limited updated knowledge of the geology and geodata about the resource potential. Most of the data was collected in the 1970s and 80s and has been upgraded slowly. For example, McNitt (1982) estimated resource potential for Kenya at 1,700 MW, whereas the latest estimates have revised the potential to 7,000-10,000 MW and similarly in Tanzania the latest resource estimate is about 5000 MW, up from 650 MW in 1982.
  1. Inadequate geothermal expertise. Unlike other power options, it requires highly skilled technicians. In a developing country such as in East Africa, geothermal training programs are hard to come by and local experts are limited.
  1. Land use conflicts. Geothermal power stations require substantive large chunks of free land to develop. In this process there can be potential risks for land conflicts between the government or investors and local residents.
  1. Risks for natural disasters. EGS systems have to deal with induced seismicity, or fracturing of rocks to high depth of about 10km or deeper, which risks induced earth quakes due to injected fluids through fracturing. This technology despite being revolutionary in nature is yet to become readily and cheaply available in East Africa.

Key policy recommendations

  1. Conduct and update the existing geodata on the resource potential and feasibility. Experts confirm the only way forward for scaling up geothermal might be for the “government to carry out feasibility studies and exploration to attract private sector development. Once areas with geothermal energy capacity are well mapped out, (…) it will be easier to attract investment in this sphere.”
  1. Scale up investment in existing geothermal projects. Given its huge initial investment costs, the government can reduce this burden by developing projects through Private Partnerships (PPPs) structured investments. Moreover, the government must continue to support and fund geothermal resource assessment and development so as to manage the geothermal exploration risk and attract investors.
  1. Reduce administrative barriers and corruption in the energy sector, by among others, adequate financing of dedicated Geothermal departments, streamlining licensing and allocation of geothermal blocks with incentives and sanctions in order to accelerate geothermal development.
  1. Promote research, development and capacity building for geothermal development by providing fiscal and other incentives. Investment in training can reduce on the current specialized skills gap required for Geothermal development and operations.
  1. Increase marketing of East Africa’s Geothermal potential and its value as a clean energy source. This can be further ramped up by the government packaging and offering multiple incentives through attractive pricing to promote and encourage direct uses of geothermal resources such as utilization of heat, water, gases and minerals. In other words, investment in Geothermal is not only an investment in the energy sector but also in associated productive ecosystem around it, including tourism. A good example is the Olkaria hot spur in Naivasha.
  1. Promote early geothermal generation through implementation of efficient modular geothermal technologies. This is essential in cutting back on the long lead time from conception to production by more than half.
  1. Enforce proper compliance to mitigate possible occurrence of disasters such as man induced earth quakes from fracturing for geothermal power with the regulatory requirement to utilize the best available technologies that optimize the resource and conserve the reservoir.

[1] https://ndcpartnership.org/knowledge-portal/good-practice-database/geothermal-energy-powering-kenyas-future-menengai-geothermal-field-development#:~:text=The%20country%20is%20fortunate%20to,of%205%2C000%20MW%20by%202030.

[2] https://renewableenergy.go.ke/technologies/geothermal-energy/

[3] https://www.thinkgeoenergy.com/uganda-targets-geothermal-development-of-up-to-100-mw-by-2025/

[4] https://www.thinkgeoenergy.com/uganda-targets-geothermal-development-of-up-to-100-mw-by-2025/

[5] https://www.carbon-counts.com/uganda-geothermal-resources

[6] https://www.linkedin.com/pulse/geothermal-energy-engineering-uganda-harnessing-earths-enyutu-elia/

[7] https://rafhladan.is/bitstream/handle/10802/6070/UNU-GTP-SC-17-1201.pdf?sequence=1#:~:text=The%20installation%20cost%20is%20also,3.6%20million%20US%24%20per%20MWe.

[8] https://www.euronews.com/business/2022/11/14/cheap-and-eco-friendly-the-huge-potential-of-geothermal-power